NOC:Applied Statistical Thermodynamics

Lecture 1 - Introduction to Statistical Thermodynamics

Lecture 2 - Postulates and Boltzmann Distribution

Lecture 3 - Properties of Canonical Partition Function

Lecture 4 - Canonical Partition Function and Thermodynamic Properties

Lecture 5 - Thermodynamic Properties of Ideal Monoatomic Gases

Lecture 6 - Monoatomic Gases and Gibbs Entropy Equation

Lecture 7 - Energy Fluctuations for Monoatomic Gases

Lecture 8 - Partition Function for Diatomic Gases

Lecture 9 - Vibrational Partition Function

Lecture 10 - Partition Function for Ideal Polyatomic Gas

Lecture 11 - Normal Mode Analysis

Lecture 12 - Illustrations

Lecture 13 - Non-reacting Ideal Gas Mixture

Lecture 14 - Chemically Reacting Gas Mixture

Lecture 15 - Degree of Ionization of Gas Molecules

Lecture 16 - Problems on Ionization of Gas Molecules

Lecture 17 - Microcanonical and Grand Canonical Ensemble

Lecture 18 - Isobaric Isothermal Ensemble

Lecture 19 - Fluctuations in Grand canonical and Isothermal Isobaric Ensembles

Lecture 20 - Semi Grand Canonical Ensemble and Comparison of Ensembles

Lecture 21 - Problems and Adsorbtion Isotherms

Lecture 22 - Virial Equation of State for Polyatomic Molecules

Lecture 23 - Virial Equation of State

Lecture 24 - Virial Equation of State with Higher Order Terms

Lecture 25 - Thermodynamic Properties from Virial Equation of State

Lecture 26 - Interaction Potentials for Spherical Molecules

Lecture 27 - Inferences from Intermolecular Potentials

Lecture 28 - Engineering Application of Virial Equation of State

Lecture 29 - Einstein Model

Lecture 30 - Einstein Model (Continued...)

Lecture 31 - Debye Model

Lecture 32 - Sublimation Pressure and Enthalpy of Crystals

Lecture 33 - Flory Huggin's Model

Lecture 34 - Ising Model

Lecture 35 - Radial Distribution Function

Lecture 36 - Radial Distribution Function

Lecture 37 - Molecular Dynamics Simulations

Lecture 38 - Square well Potential and Barker Henderson Pertubation Theory