Lecture
1: The
importance of chemical principles
|
Lecture 19: Chemical
equilibrium |
| Lecture 2: Discovery of electron and
nucleus |
Lecture
20: Le Chatelier's
principle |
Lecture
3: Wave-particle
duality of light
|
Lecture
21: Acid-base
equilibrium |
Lecture 4: Wave-particle duality of matter
|
Lecture 22: Chemical and biological buffers |
Lecture
5: Hydrogen
atom energy levels
|
Lecture 23: Acid-base titrations |
| Lecture
6: Hydrogen
atom wavefunctions |
Lecture
24: Balancing
oxidation/reduction equations |
Lecture
7: p-orbitals
|
Lecture
25: Electrochemical
cells |
Lecture
8: Multielectron
electron configurations
|
Lecture
26: Oxidation/reduction
reactions |
Lecture
9: Periodic
trends
|
Lecture
27: Transition metals |
Lecture
10: Periodic trends
contnd.; Covalent bonds
|
Lecture
28: Crystal field
theory |
Lecture
11: Lewis structures
|
Lecture
29: Metals in biology |
Lecture
12: Exceptions to
Lewis rules; Ionic bonds
|
Lecture 30: Magnetism
and spectrochemical theory |
Lecture
13: Polar covalent
bonds; VSEPR theory
|
Lecture
31: Rate laws |
Lecture
14: Molecular orbital
theory
|
Lecture 32: Nuclear chemistry |
Lecture
15: Valence bond
theory and hybridization
|
Lecture
33: Reaction mechanism |
| Lecture
16: Thermochemistry
and bond energies |
Lecture 34: Temperature and kinetics |
Lecture 17: Entropy and disorder
|
Lecture
35: Enzyme
catalysis |
| Lecture 18: Free energy and control of
spontaneity |
Lecture 36: Biochemistry
|