- Page 1: Statistical Mechanics Henri J.F. Ja
- Page 5 and 6: CONTENTS V 9.7 Renormalization grou
- Page 7 and 8: List of Figures 4.1 Fermi Dirac dis
- Page 9 and 10: INTRODUCTION IX will do here, which
- Page 11 and 12: Chapter 1 Foundation of statistical
- Page 13 and 14: 1.1. INTRODUCTION. 3 gas constant R
- Page 15 and 16: 1.3. STATES OF A SYSTEM. 5 4. Take
- Page 17 and 18: 1.3. STATES OF A SYSTEM. 7 g(N, M)
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- Page 21 and 22: 1.4. AVERAGES. 11 A different way o
- Page 23 and 24: 1.4. AVERAGES. 13 < f >= 1 L syste
- Page 25 and 26: 1.5. THERMAL EQUILIBRIUM. 15 the ma
- Page 27 and 28: 1.6. ENTROPY AND TEMPERATURE. 17 ar
- Page 29 and 30: 1.7. LAWS OF THERMODYNAMICS. 19 1.7
- Page 31 and 32: 1.8. PROBLEMS FOR CHAPTER 1 21 Prob
- Page 33 and 34: Chapter 2 The canonical ensemble: a
- Page 35 and 36: 2.1. INTRODUCTION. 25 PS(s) ∝ gR(
- Page 37 and 38: 2.2. ENERGY AND ENTROPY AND TEMPERA
- Page 39 and 40: 2.3. WORK AND PRESSURE. 29 pressure
- Page 41 and 42: 2.4. HELMHOLTZ FREE ENERGY. 31 Supp
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Chapter 3 Systems with a variable n
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3.1. CHEMICAL POTENTIAL. 45 µ(T, V
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3.2. EXAMPLES OF THE USE OF THE CHE
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3.3. DIFFERENTIAL RELATIONS AND GRA
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3.4. GRAND PARTITION FUNCTION. 51 T
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3.4. GRAND PARTITION FUNCTION. 53
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3.5. OVERVIEW OF CALCULATION METHOD
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3.6. A SIMPLE EXAMPLE. 57 (∆M) 2
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3.7. IDEAL GAS IN FIRST APPROXIMATI
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3.7. IDEAL GAS IN FIRST APPROXIMATI
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3.7. IDEAL GAS IN FIRST APPROXIMATI
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3.8. PROBLEMS FOR CHAPTER 3 65 Prob
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Chapter 4 Statistics of independent
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4.1. INTRODUCTION. 69 If we add one
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4.1. INTRODUCTION. 71 1 Fermi Dirac
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4.1. INTRODUCTION. 73 and hence in
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4.2. BOLTZMANN GAS AGAIN. 75 Althou
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4.3. GAS OF POLY-ATOMIC MOLECULES.
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4.4. DEGENERATE GAS. 79 n F = NkB
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4.5. FERMI GAS. 81 fF D(ɛ) = 1 e
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4.5. FERMI GAS. 83 N({n1, n2, . . .
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4.6. BOSON GAS. 85 S = −kB (fF D
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4.7. PROBLEMS FOR CHAPTER 4 87 4.7
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Chapter 5 Fermi and Bose systems of
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5.1. FERMIONS IN A BOX. 91 Znx,ny,n
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5.1. FERMIONS IN A BOX. 93 T ′ m
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5.1. FERMIONS IN A BOX. 95 non-anal
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5.1. FERMIONS IN A BOX. 97 fα(z) =
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5.1. FERMIONS IN A BOX. 99 d dz ∞
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5.1. FERMIONS IN A BOX. 101 and usi
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5.1. FERMIONS IN A BOX. 103 This re
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5.1. FERMIONS IN A BOX. 105 Experim
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5.2. BOSONS IN A BOX. 107 with Znx,
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5.2. BOSONS IN A BOX. 109 0 < T Tm
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5.2. BOSONS IN A BOX. 111 where we
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5.3. BOSE-EINSTEIN CONDENSATION. 11
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5.4. PROBLEMS FOR CHAPTER 5 115 deg
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5.4. PROBLEMS FOR CHAPTER 5 117 (C)
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Chapter 6 Density matrix formalism.
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6.1. DENSITY OPERATORS. 121 The par
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6.2. GENERAL ENSEMBLES. 123 We can
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6.3. MAXIMUM ENTROPY PRINCIPLE. 125
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6.3. MAXIMUM ENTROPY PRINCIPLE. 127
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6.3. MAXIMUM ENTROPY PRINCIPLE. 129
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6.3. MAXIMUM ENTROPY PRINCIPLE. 131
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6.3. MAXIMUM ENTROPY PRINCIPLE. 133
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6.4. EQUIVALENCE OF ENTROPY DEFINIT
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6.5. PROBLEMS FOR CHAPTER 6 137 A s
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Chapter 7 Classical statistical mec
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7.1. RELATION BETWEEN QUANTUM AND C
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7.2. CLASSICAL FORMULATION OF STATI
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7.3. ERGODIC THEOREM. 145 The traje
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7.4. WHAT IS CHAOS? 147 surface. Fo
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7.5. IDEAL GAS IN CLASSICAL STATIST
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7.6. NORMAL SYSTEMS. 151 N V S(U, V
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7.8. EFFECTS OF THE POTENTIAL ENERG
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7.9. PROBLEMS FOR CHAPTER 7 155 C.
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Chapter 8 Mean Field Theory: critic
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8.1. INTRODUCTION. 159 In a first a
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8.2. BASIC MEAN FIELD THEORY. 161 i
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8.2. BASIC MEAN FIELD THEORY. 163 T
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8.3. MEAN FIELD RESULTS. 165 σ=
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8.3. MEAN FIELD RESULTS. 167 An int
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8.4. DENSITY-MATRIX APPROACH (BRAGG
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8.4. DENSITY-MATRIX APPROACH (BRAGG
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8.4. DENSITY-MATRIX APPROACH (BRAGG
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8.4. DENSITY-MATRIX APPROACH (BRAGG
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8.5. CRITICAL TEMPERATURE IN DIFFER
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8.5. CRITICAL TEMPERATURE IN DIFFER
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8.6. BETHE APPROXIMATION. 181 kBTc
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8.6. BETHE APPROXIMATION. 183 Next,
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8.6. BETHE APPROXIMATION. 185 or e
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8.6. BETHE APPROXIMATION. 187 which
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8.7. PROBLEMS FOR CHAPTER 8 189 B.
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Chapter 9 General methods: critical
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9.2. INTEGRATION OVER THE COUPLING
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9.2. INTEGRATION OVER THE COUPLING
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9.3. CRITICAL EXPONENTS. 197 9.3 Cr
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9.3. CRITICAL EXPONENTS. 199 (cosh
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9.3. CRITICAL EXPONENTS. 201 −0.7
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9.4. RELATION BETWEEN SUSCEPTIBILIT
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9.5. EXACT SOLUTION FOR THE ISING C
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9.5. EXACT SOLUTION FOR THE ISING C
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9.5. EXACT SOLUTION FOR THE ISING C
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9.6. SPIN-CORRELATION FUNCTION FOR
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9.6. SPIN-CORRELATION FUNCTION FOR
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9.6. SPIN-CORRELATION FUNCTION FOR
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9.6. SPIN-CORRELATION FUNCTION FOR
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9.7. RENORMALIZATION GROUP THEORY.
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9.7. RENORMALIZATION GROUP THEORY.
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9.7. RENORMALIZATION GROUP THEORY.
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9.7. RENORMALIZATION GROUP THEORY.
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9.8. PROBLEMS FOR CHAPTER 9 227 Pro
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Appendix A Solutions to selected pr
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A.1. SOLUTIONS FOR CHAPTER 1. 231 (
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A.1. SOLUTIONS FOR CHAPTER 1. 233 x
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A.1. SOLUTIONS FOR CHAPTER 1. 235 T
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A.2. SOLUTIONS FOR CHAPTER 2. 237 A
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A.2. SOLUTIONS FOR CHAPTER 2. 239 w
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A.2. SOLUTIONS FOR CHAPTER 2. 241 F
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A.3. SOLUTIONS FOR CHAPTER 3 243 an
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A.3. SOLUTIONS FOR CHAPTER 3 245 (A
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A.4. SOLUTIONS FOR CHAPTER 4. 247 P
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A.4. SOLUTIONS FOR CHAPTER 4. 249 <
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A.5. SOLUTIONS FOR CHAPTER 5. 251 T
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A.5. SOLUTIONS FOR CHAPTER 5. 253 M
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A.5. SOLUTIONS FOR CHAPTER 5. 255 o
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A.6. SOLUTIONS FOR CHAPTER 6. 257 F
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A.6. SOLUTIONS FOR CHAPTER 6. 259 f