Chapter
§ 4. The significance of energy
§ 5. The statistical matrix
§ 6. Statistical distributions in quantum statistics
§ 8. The law of increase of entropy
CHAPTER II. THERMODYNAMIC QUANTITIES
§ 11. Adiabatic processes
§ 13. Work and quantity of heat
§ 15. The free energy and the thermodynamic potential
§ 16. Relations between the derivatives of thermodynamic quantities
§ 17. The thermodynamic scale of temperature
§ 18. The Joule-Thomson process
§ 20. Maximum work done by a body in an external medium
§ 21. Thermodynamic inequalities
§ 22. Le Chatelier's principle
§ 24. The dependence of the thermodynamic quantities on the number of particles
§ 25. Equilibrium of a body in an external field
§ 27. Thermodynamic relations in the relativistic region
CHAPTER III. THE GIBBS DISTRIBUTION
§ 28. The Gibbs distribution
§ 29. The Maxwellian distribution
§ 30. The probability distribution for an oscillator
§ 31. The free energy in the Gibbs distribution
§ 32. Thermodynamic perturbation theory
§ 33. Expansion in powers of h
§ 34. The Gibbs distribution for rotating bodies
§ 35. The Gibbs distribution for a variable number of particles
§ 36. The derivation of the thermodynamic relations from the Gibbs distribution
§ 37. The Boltzmann distribution
§ 38. The Boltzmann distribution in classical statistics
§ 39. Molecular collisions
§ 40. Ideal gases not in equilibrium
§ 41. The free energy of an ideal Boltzmann gas
§ 42. The equation of state of an ideal gas
§ 43. Ideal gases with constant specific heat
§ 44. The law of equipartition
§ 45. Monatomic ideal gases
§ 46. Monatomic gases. The effect of the electronic angular momentum
§ 47. Diatomic gases with molecules of unlike atoms. Rotation of molecules
§ 48. Diatomic gases with molecules of like atoms. Rotation of molecules
§ 49. Diatomic gases. Vibrations of atoms
§ 50. Diatomic gases. The effect of the electronic angular momentum
CHAPTER V. THE FERMI AND BOSE DISTRIBUTIONS
§ 53. Hie Fermi distribution
§ 54. The Bose distribution
§ 55. Fermi and Bose gases not in equilibrium
§ 56. Fermi and Bose gases of elementar)' particles
§ 57. A degenerate electron gas
§ 58. The specific heat of a degenerate electron gas
§ 59. Magnetism of an electron gas. Weak fields
§ 60. Magnetism of an electron gas. Strong fields
§ 61. A relativistic degenerate electron gas
§ 62. A degenerate Bose gas
§ 63. Black-body radiation
§ 64. Solids at low temperatures
§ 65. Solids at high temperatures
§ 66. Debye's interpolation formula
§ 67. Thermal expansion of solids
§ 68. Highly anisotropic crystals
§ 69. Crystal lattice vibrations
§ 70. Number density of vibrations
§ 72. Phonon creation and annihilation operators
§ 73. Negative temperatures
CHAPTER VII. NON-IDEAL GASES
§ 74. Deviations of gases from the ideal state
§ 75. Expansion in powers of the density
§ 76. Van der Waals' formula
§ 77. Relationship of the virial coeflicient and the scattering amplitude
§ 78. Thermodynamic quantities for a classical plasma
§ 79. The method of correlation functions
§ 80. Thermodynamic quantities for a degenerate plasma
CHAPTER VIII. PHASE EQUILIBRIUM
§ 81. Conditions of phase equilibrium
§ 82. The Clapeyron–Clausius formula
§ 84. The law of corresponding states
§ 85. Systems containing different particles
§ 89. Solvent phases in contact
§ 90. Equilibrium with respect to the solute
§ 91. Evolution of heat and change of volume on dissolution
§ 92. Solutions of strong electrolytes
§ 93. Mixtures of ideal gases
§ 94. Mixtures of isotopes
§ 95. Vapour pressure over concentrated solutions
§ 96. Thermodynamic inequalities for solutions
§ 98. Examples of phase diagrams
§ 99. Intersection of singular curves on the equilibrium surface
CHAPTER X. CHEMICAL REACTIONS
§ 101. The condition for chemical equilibrium
§ 102. The law of mass action
§ 104. Ionisation equilibrium
§ 105. Equilibrium with respect to pair production
CHAPTER XI PROPERTIES OF MATTER AT VERY HIGH DENSITY
§ 106. The equation of state of matter at high density
§ 107. Equilibrium of bodies of large mass
§ 108. The energy of a gravitating body
§ 109. Equilibrium of a neutron sphere
CHAPTER XII. FLUCTUATIONS
§ 110. The Gaussian distribution
§111. The Gaussian distribution for more than one variable
§ 112. Fluctuations of the fundamental thermodynamic quantities
§ 113. Fluctuations in an ideal gas
§ 115. Fluctuations in solutions
§ 116. Spatial correlation of density fluctuations
§ 117. Correlation of density fluctuations in a degenerate gas
§ 118. Correlations of fluctuations in time
§ 119. Time correlations of the fluctuations of more than one variable
§ 120. The symmetry of the kinetic coefficients
§ 121. The dissipative function
§ 122. Spectral resolution of fluctuations
§ 123. The generalised susceptibility
§ 124. The fluctuation-dissipation theorem
§ 125. The fluctuation-dissipation theorem for more than one variable
§ 126. The operator form of the generalised susceptibility
§ 127. Fluctuations in the curvature of long molecules
CHAPTER XIII. THE SYMMETRY OF CRYSTALS
§128. Symmetry elements of a crystal lattice
§ 129. The Bravais lattice
§ 133. The reciprocal lattice
§ 134. Irreducible representations of space groups
§ 135. Symmetry under time reversal
§ 136. Symmetry properties of normal vibrations of a crystal lattice
§ 137. Structures periodic in one and two dimensions
§ 138. The correlation function in two-dimensional systems
§ 139. Symmetry with respect to orientation of molecules
§ 140. Nematic and cholesteric liquid crystals
§ 141. Fluctuations in liquid crystals
CHAPTER XIV. PHASE TRANSITIONS OF THE SECOND KIND AND CRITICAL PHENOMENA
§ 142. Phase transitions of the second kind
§ 143. The discontinuity of specific heat
§ 144. Effect of an external field on a phase transition
§ 145. Change in symmetry in a phase transition of the second kind
§ 146. Fluctuations of the order parameter
§ 147. The effective Hamiltonian
§ 150. Isolated and critical points of continuous transition
§ 151. Phase transitions of the second kind in a two-dimensional lattice
§ 152. Van der Waals theory of the critical point
§ 153. Fluctuation theory of the critical point
§ 155. Surface tension of crystals
§ 157. Surface tension of solutions
§ 158. Surface tension of solutions of strong electrolytes
§ 161. The angle of contact
§ 162. Nucleation in phase transitions
§ 163. The impossibility of the existence of phases in one-dimensional systems
Course of Theoretical Physics
( 3 )
Disclaimer: Any content in publications that violate the sovereignty, the constitution or regulations of the PRC is not accepted or approved by CNPIEC.
