Lecture 1
Perfect Gas and van der Waals Equations of State

Lecture 2
The Kinetic Model (from 2021)

Lecture 3
Internal Energy

Lecture 4
The First Law, Expansion Work

Lecture 5
Heat Transactions, Enthalpy

Lecture 6
Thermochemistry

Lecture 7
State Functions, Exact Differentials, Adiabatic Changes

Lecture 8
The Second Law and the Carnot Cycle

Lecture 9
Entropy Changes

Lecture 10
Helmholtz and Gibbs Energies, Maxwell Relations

Lecture 11
Phase Diagrams of Pure Substances

Lecture 12
Thermodynamic Aspects of Phase Transitions

Lecture 13
Partial Molar Quantities, Mixtures

Lecture 14
Binary Liquid Mixture Phase Diagrams

Lecture 15
The Equilibrium Constant

Lecture 16
Response of Equilibria to Reaction Conditions

Lecture 17
Rate Laws and Rate Constants

Lecture 18
Reactions Approaching Equilibrium

Lecture 19
Reaction Mechanisms

Lecture 1
Historical Context of Quantum Mechanics

Lecture 2
The Time-Independent Schrödinger Equation

Lecture 3
The Particle in a One-Dimensional Box

Lecture 4
Particle in a Box Wavefunctions, Orthonormality

Lecture 5
The Particle in a Rectangular Well

Lecture 6
Operators

Lecture 7
The Three-Dimensional, Many-Particle Schrödinger Equation

Lecture 8
The Particle in a Three-Dimensional Box

Lecture 9
The Classical Harmonic Oscillator

Lecture 10
The Quantum Mechanical Harmonic Oscillator

Lecture 11
Diatomic Molecules

Lecture 12
Commutator Identities

Lecture 13
Vectors

Lecture 14
Angular Momentum

Lecture 15
Orbital Angular Momentum Operators and Eigenfunctions

Lecture 16
Eigenvalues of Orbital Angular Momentum Operators

Lecture 17
The One-Particle Central Force Problem

Lecture 18
The Two-Particle Rigid Rotor

Lecture 19
The Hydrogen Atom