No
|
Date |
Topics |
Lecture Materials |
Chapter |
1 |
1/10 |
Hydration of Alkynes. |
|
11 |
2 |
1/12 |
Hydroboration-oxidation of alkynes. Desiging multistep synthese using alkynes. |
|
11 |
3 |
1/14 |
Overview of redox
rxns. Reduction of alkenes. |
|
12 |
4 |
1/19 |
Reduction of alkynes.Reduction of carbonyl compounds and alkyl halides. Epoxidation of
alkenes. |
|
12 |
5 |
1/21 |
Dihydroxylation of
alkenes. Ozonolysis. |
|
12 |
6 |
1/24 |
Radical reactions.
Halogenation.
Selectivity of Br vs Cl. |
|
15 |
7 |
1/26 |
NBS for allylic
bromination. Peroxide effect on HBr additions. Lipid
peroxidation. |
|
15 |
8 |
1/28 |
Lipid
peroxidation and antioxidants. Radical polymerization. Ozone and CFCs. Conjugation. Conjugated diene stability. |
|
15, 16 |
9 |
1/31 |
Allylic cations and radicals. 1,2 vs 1,4 addition to conjugated dienes. Resonance vs orbital descriptions of conjugated systems |
|
16 |
10 |
2/2 |
Huckel MO theory. Benzene and
aromaticity. Benzene MOs and the Huckel rule. |
|
17 |
11 |
2/4 |
Theoretical and experimental criteria for aromaticity. |
|
17 |
12 |
2/7 |
Aromatic ions. Heteroaromatic rings. |
|
17 |
|
2/9 |
Exam 1 |
|
|
13 |
2/11 |
Electrophilic aromatic substitution. General mechanism. EAS
specific mechanisms. Halogenation, F-C Alkylation, Nitration. Sulfonation. Proton exchange. Effects of substituents. |
|
18 |
14 |
2/14 |
Theory of substituent effects on EAS. Resonance vs inductive effects. |
|
18 |
15 |
2/18 |
Orientation of EAS on disubstituted rings. Limitations of F-C alkylation. Use of F-C acylation for purposes of alkylation. |
|
18 |
16 |
2/21 |
More limitations of F-C reactions. Redox reactions of the benzene ring
and of side chain groups. Benzylic halogenation. Synthesis. |
|
18 |
17 |
2/23 |
Nucleophilic aromatic substitution including benzene diazonium
chemistry. |
|
Smith Companion Site |
18 |
2/25 |
Diazonium
chemistry. Synthesis. |
|
25.13-25.14 |
19 |
2/28 |
Carboxylic Acids
- naming and acidity. Amino acids. |
|
19 |
20 |
3/2 |
Intro to Carbonyl Chemistry. Hydride reduction reactions. |
|
20 |
|
3/4 |
Exam 2 |
|
|
21 |
3/14 |
Hydride reduction reactions continued. |
|
20 |
22 |
3/16 |
Organometallic Chemistry. The Wurtz synthesis. Organocuprates. Alkane synthesis. Ketone synthesis. |
|
20 |
23 |
3/18 |
The Grignard synthesis. |
|
20 |
24 |
3/21 |
Naming of aldehydes, ketones and carboxylic acid derivatives. |
|
21 |
25 |
3/23 |
Addition of amines to aldehydes and ketones: imines and enamines. |
|
21 |
26 |
3/25 |
Protectiong groups: silyl ethers. |
|
21 |
27 |
3/28 |
Quest |
|
21 |
28 |
3/30 |
Acid-catalyzed
addition of water and alcohols to aldehydes and ketones. Acetals as
protecting groups. |
|
21 |
29 |
4/1 |
The Wittig alkene synthesis. |
|
21 |
30 |
4/4 |
Reactions of
carboxylic acid derivatives. Overall reactivity scheme. |
|
22 |
31 |
4/6 |
Naming and reactions of
carboxylic acid derivatives. Transesterification. Fischer esterification. |
|
22 |
32 |
4/8 |
Reactions of
carboxylic acid derivatives: polymerization and reactions of nitriles. |
|
22 |
33 |
4/11 |
Enols and
enolates as nucleophiles. Bases to use for enolate formation. Racemization/Epimerization. Halogenation. |
|
23 |
|
4/13 |
Exam 3 |
|
|
34 |
4/15 |
Alkylation. Kinetic vs thermodynamic enolates.The malonic ester and acetoacetic ester syntheses. |
|
23 |
35 |
4/18 |
Aldol reactions. |
|
24 |
36 |
4/20 |
Michael addition. Robinson annulation. The Claisen
reaction. |
|
24 |
37 |
4/25 |
Amines - Naming,
Physical Properties, Preparation via the Gabriel synthesis and reduction of an imine. |
|
25 |
38 |
4/27 |
Amines. Preparation via reductive amination. Reaction as bases. Alkylation of enamines. |
|
25 |
|
4/29 |
Exam 4 |
|
|
|
5/4 |
Final Exam |
|
|