Thermodynamics, Statistical Physics, and Quantum Mechanics

xx Contents

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127

4.31.

4.32.

4.33.

4.34.

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128

130

131

133

135

136

137

138

141

4.35.

4.36.

4.37.

4.38.

4.39.

4.40.

4.41.

4.42.

4.43.

4.44.

142

146

147

148

149

4.45.

4.46.

4.47.

4.48.

151

151

152

154

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156

4.49.

4.50.

4.51.

4.52.

4.53.

4.54.

4.55.

4.56.

4.57.

4.58.

4.59.

4.60.

4.61.

4.62.

4.63.

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4.64.

4.65.

OttoCycle(Stony Brook)

JouleCycle(Stony Brook)

DieselCycle (StonyBrook)

Modified Joule–Thomson (Boston)

Ideal Gasand ClassicalStatistics

PoissonDistribution inIdeal Gas (Colorado)

Polarization of Ideal Gas (Moscow Phys-Tech)

Two-Dipole Interaction (Princeton)

Entropy ofIdeal Gas (Princeton)

Chemical Potential of Ideal Gas (Stony Brook)

Gas in Harmonic Well(Boston)

Ideal Gas in One-Dimensional Potential(Rutgers)

Equipartition Theorem (Columbia, Boston)

Diatomic Molecules in Two Dimensions(Columbia)

Diatomic Molecules in Three Dimensions(Stony Brook,

Michigan State)

Two-Level System (Princeton)

Zipper(Boston)

Hanging Chain (Boston)

Molecular Chain (MIT, Princeton, Colorado)

Nonideal Gas

Heat Capacities (Princeton)

Return ofHeat Capacities(Michigan)

Nonideal Gas Expansion (Michigan State)

van der Waals (MIT)

Critical Parameters (Stony Brook)

Mixtures andPhase Separation

Entropy of Mixing(Michigan, MIT)

Leaky Balloon (Moscow Phys-Tech)

Osmotic Pressure (MIT)

Clausius–Clapeyron(Stony Brook)

Phase Transition (MIT)

Hydrogen Sublimation in IntergalacticSpace(Princeton)

Gas Mixture Condensation (Moscow Phys-Tech)

Air Bubble Coalescence (Moscow Phys-Tech)

Soap Bubble Coalescence (Moscow Phys-Tech)

Soap Bubbles in Equilibrium(Moscow Phys-Tech)

QuantumStatistics

Fermi Energy of a 1D Electron Gas(Wisconsin-Madison)

Two-Dimensional Fermi Gas(MIT, Wisconson-Madison)