1 Lecture 1 (1 of 2) - Course Introduction
2 Lecture 1 (2 of 2) - Concentrations
3 Lecture 2 (1 of 6) - Properties of Gases Introduction
4 Lecture 2 (2 of 6) - The Ideal Gas Law
5 Lecture 2 (3 of 6) - Ideal Gases (cont.)
6 Lecture 2 (4 of 6) - Dalton's Law
7 Lecture 2 (5 of 6) - Real Gases
8 Lecture 2 (6 of 6) - Gas Law Examples
9 Lecture 3 (1 of 4) - Internal Energy
10 Lecture 3 (2 of 4) - Expansion Work
11 Lecture 3 (3 of 4) - Heat
12 Lecture 3 (4 of 4) - First Law of Thermodynamics Examples
13 Lecture 4 (1 of 6) - Enthalpy Introduction
14 Lecture 4 (2 of 6) - Difference Between H and U
15 Lecture 4 (3 of 6) - Heat Capacity at Constant Pressure
16 Lecture 4 (4 of 6) - Hess' Law
17 Lecture 4 (5 of 6) - Hess' Law Applications
18 Lecture 4 (6 of 6) - Kirchhoff's Law
19 Lecture 5 (1 of 5) - Adiabatic Behaviour
20 Lecture 5 (2 of 5) - Adiabatic Expansion Work
21 Lecture 5 (3 of 5) - Heat Engines
22 Lecture 5 (4 of 5) - Total Carnot Work
23 Lecture 5 (5 of 5) - Heat Engine Efficiency
24 Lecture 6 (1 of 4) - Microstates and Macrostates
25 Lecture 6 (2 of 4) - Partition Functions
26 Lecture 6 (3 of 4) - Partition Functions Examples
27 Lecture 6 (4 of 4) - Calculating U from Partition Functions
28 Lecture 7 (1 of 4) - Entropy
29 Lecture 7 (2 of 4) - Change in Entropy Examples
30 Lecture 7 (3 of 4) - Residual Entropies and the Third Law
31 Lecture 7 (4 of 4) - Absolute Entropies and Spontaneity
32 Lecture 8 (1 of 7) - Free Energies
33 Lecture 8 (2 of 7) - The Gibbs Free Energy
34 Lecture 8 (3 of 7) - Phase Diagrams
35 Lecture 8 (4 of 7) - Building Phase Diagrams
36 Lecture 8 (5 of 7) - The Clapeyron Equation
37 Lecture 8 (6 of 7) - The Clapeyron Equation Example
38 Lecture 8 (7 of 7) - The Clausius Clapeyron Equation
39 Lecture 9 (1 of 5) - Chemical Potential
40 Lecture 9 (2 of 5) - The Mixing of Gases
41 Lecture 9 (3 of 5) - Raoult's Law
42 Lecture 9 (4 of 5) - Real Solutions
43 Lecture 9 (5 of 5) - Dilute Solutions
44 Lecture 10 (1 of 4) - Colligative Properties
45 Lecture 10 (2 of 4) - Fractional Distillation
46 Lecture 10 (3 of 4) - Freezing Point Depression
47 Lecture 10 (4 of 4) - Osmosis
48 Lecture 11 (1 of 5) - Chemical Potential and Equilibrium
49 Lecture 11 (2 of 5) - The Equilibrium Constant
50 Lecture 11 (3 of 5) - Equilibrium Concentrations
51 Lecture 11 (4 of 5) - Le Chatelier and Temperature
52 Lecture 11 (5 of 5) - Le Chaterler and Pressure
53 Lecture 12 (1 of 5) - Ions in Solution
54 Lecture 12 (2 of 5) - Debye-Hückel Law
55 Lecture 12 (3 of 5) - Salting In and Salting Out
56 Lecture 12 (4 of 5) - Salting In Example
57 Lecture 12 (5 of 5) - Salting Out Example
58 Lecture 13 (1 of 4) - Acid Equilibrium Review
59 Lecture 13 (2 of 4) - Real Acid Equilibrium
60 Lecture 13 (3 of 4) - The pH of Real Acid Solutions
61 Lecture 13 (4 of 4) - Buffers
62 Lecture 15 (1 of 5) - Rate Law Expressions
63 Lecture 15 (2 of 5) - 2nd Order Type 2 Integrated Rate Law
64 Lecture 15 (3 of 5) - 2nd Order Integrated Rate Law (cont.)
65 Lecture 15 (4 of 5) - Strategies To Determine Order
66 Lecture 15 (5 of 5) - Half Life
67 Lecture 16 (1 of 2) - The Arrhenius Equation
68 Lecture 16 (2 of 2) - The Arrhenius Equation Examples
69 Lecture 17 (1 of 6) - The Approach to Equilibrium
70 Lecture 17 (2 of 6) - The Approach to Equilibrium (cont.)
71 Lecture 17 (3 of 6) - Link Between K and Rate Constants
72 Lecture 17 (4 of 6) - Equilibrium Shift Setup
73 Lecture 17 (5 of 6) - Time Constant, Tau
74 Lecture 17 (6 of 6) - Quantifying Tau and Concentrations
75 Lecture 18 (1 of 8) - Consecutive Chemical Reactions
76 Lecture 18 (2 of 8) - Multi-Step Integrated Rate Laws
77 Lecture 18 (3 of 8) - Multi-Step Int Rate Laws (cont.)
78 Lecture 18 (4 of 8) - Intermediate Max and Rate Det Step
79 Lecture 18 (5 of 8) - Preequilibrium Approximation
80 Lecture 18 (6 of 8) - Preequilibrium Approximation (cont.)
81 Lecture 18 (7 of 8) - Steady State Approximation
82 Lecture 18 (8 of 8) - Steady State Approximation (cont.)
83 Lecture 19 (1 of 2) - Rate Law Expressions with Catalysts
84 Lecture 19 (2 of 2) - Michaelis-Menten Enzyme Rate Law