Section |
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Relevant Section in Smith 3rd Edition Textbook |
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A |
Introduction to Retrosynthesis |
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1. Summary Of Reactions From First Semester Organic |
N/A |
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1.1 Synthesis of Halides (Bromides) |
15.6, 15.7, 15.10, 10.9, 15.13 |
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1.2 Synthesis of Alkenes |
8.4, 8.5 |
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1.3 Alkenes From Alcohols |
9.8 |
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1.4 Synthesis of Alcohols |
10.16 |
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1.5 Synthesis of Dibromides |
10.13 |
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1.6 Synthesis of Alkanes |
12.3 |
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1.7 Synthesis of Epoxides |
12.8 |
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1.8 SN2 Reactions |
7.19 |
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2. Multi-Step Synthesis |
7.19, 10.18 |
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3. Retrosynthetic Analysis ; The Synthon |
N/A |
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4. SN2 Reactions Revisited : Practice Doing Reactions in Reverse in Reverse |
7.19 |
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5. Putting It All Together : A Retrosynthetic Strategy |
10.18, 11.12 |
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B |
Alkynes: Developing Synthetic Methods |
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1. Nomenclature |
11.2 |
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2. Structure and Properties |
11.1 |
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2.1 Alkyne Acidity |
11.11 |
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2.2. Alkyne Acidity in Water and Ammonia |
N/A |
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3. Preparation of Alkynes |
11.5 |
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4. Reactions of Alkynes |
12.5 |
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4.1 Addition of Hydrogen (Reduction) |
12.5 |
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4.2 Addition of H-X, X2 etc. |
11.7, 11.8 |
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4.3 Addition of H2O |
11.9 |
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4.4 Formation of trans-Alkenes |
12.5 |
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5. Acetylide Anions : Retrosynthesis and Carbon-Carbon Bonds |
11.11 |
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5.1 Addition to Alkyl Halides |
11.11A |
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5.2 Addition to Carbonyls and Epoxides |
11.11B |
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5.3 Examples in Synthesis |
11.12 |
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6. Summary of Reactions |
N/A |
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C |
Alcohols : Oxidation and Reduction |
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1. Nomenclature |
9.3 |
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2. Alcohol Acidity |
N/A |
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2.1 Review of Substituent EFfects |
18.6 |
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3. Oxidation Reduction Definition |
12.1 |
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4. Preparation of Alcohols |
9.6 |
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4.1 Review of Reactions That We Have Already Seen |
9.6 |
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4.2 Hydride Reduction of a Carbonyl Group |
20.4 |
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5. Reactions of Alcohols |
10 |
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5.1 Oxidation |
12.12 |
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5.2 Formation of Alkyl Halides |
9.11 |
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5.3 Formation of Tosylate Esters |
9.13 |
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5.4 Dehydration |
9.8 |
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6. Summary of Reactions |
N/A |
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D |
Organometallic Reagents : Carbon-Carbon Bonds |
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1. Carbon-Metal Bonds |
20.9 |
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2. Nucleophilic Addition Reactions |
20.10, 20.11 |
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3. Organometallics in Synthesis |
N/A |
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4. Organometallics: Summary of Reactions |
N/A |
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E |
Ethers and Epoxides: Reactions with Bronsted Acids and Bases |
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1. Terminology and Properties |
9.1 |
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2. Nomenclature |
9.3 |
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3. Preparation of Ethers |
9.6 |
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3.1 Williamson Ether Synthesis |
9.6 |
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3.2 Preparation Methods for Ethers/Epoxides Seen Before |
12.8 |
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4. Reactions of Ethers/Epoxides |
9.7B |
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4.1 Cleavage of Ethers Using Acid |
9.14 |
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4.2 Acid Catalyzed Opening of Epoxides |
9.15B |
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4.3 Base Catalyzed Opening of Epoxides |
9.15A |
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4.4. Examples in Synthesis |
N/A |
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5. Summary of Reactions |
N/A |
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F |
Conjugated Systems : Return to Molecular Orbital Theory |
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1. Conjugated Systems and Resonance |
16.1 - 16.6 |
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2. Reactions of Allyl Systems : Conjugated Intermediates |
15.10 |
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3. Reactions of Dienes : Kinetic and Thermodynamic Control |
16.10 |
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4. Diels-Alder Reaction : Cycloaddition |
16.12 - 16.14 |
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5. Pi-Molecular Orbitals |
17.9 |
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5.1 Rules for Constructing Pi Molecular Orbitals |
N/A |
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5.2 Pi-Molecular orbitals of Ethylene |
7.8, 29.2 |
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5.3 Pi-Molecular orbitals of Butadiene |
N/A |
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5.4 Pi-Molecular orbitals of Allyl Systems |
N/A |
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5.5 Relative Energies of Pi-Molecular Orbitals |
N/A |
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5.6 Origin of Conjugation/Resonance Stability |
N/A |
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6. Frontier Molecular Orbital Theory and Pericyclic Reactions | N/A |
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7. Aromatic Transition State Theory and Pericyclic Reactions |
N/A |
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8. Summary of Reaction Types |
N/A |
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G |
Aromaticity: Stability and Instability in Cyclic Pi-Systems |
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1. Huckel Rule |
17.7, 17.9 |
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2. Aromatic Ions |
17.8D |
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3. Aromatic Heterocycles |
17.8C |
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4. Other Examples |
17.8 |
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H |
Reactions of Benzenes: Electrophilic Aromatic Substitution |
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1. Notation, Structure and Nomenclature |
17.2, 17.3 |
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2. Miscellaneous Reactions of Benzenes |
18.14 |
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2.1 Reductions: Addition of Hydrogen |
18.14 |
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2.2 Side-Chain Oxidation |
18.14 |
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3. Electrophilic Aromatic Substitution |
18.1, 18.2 |
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3.1 Halogenation of Benzenes |
18.3 |
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3.2 Nitration of Benzenes |
18.4 |
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3.3 Sulfonation of Benzenes |
18.4 |
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3.4 Alkylation and Acylation of Benzenes |
18.5 |
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4. Reactions of Disubstituted Benzenes |
18.7 - 18.11 |
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4.1 Donating Groups - Activating and Ortho- and Para-Directing |
18.9 |
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4.2 Withdrawing Groups - Deactivating and Meta-Directing |
18.9 |
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4.3 Halogens as Substituents - Deactivating BUT Ortho- and Para-Directing |
18.9 |
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4.4 Predicting Substituent Effects for Multiply Substituted Benzenes |
18.9, 18.11 |
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5. Synthesis of Substituted Benzenes |
18.12, 18.15 |
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6. Nucleophilic Aromatic Substitution |
N/A |
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7. Summary of Reactions |
N/A |
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I |
Aldehydes and Ketones : Nucleophilic Addition |
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1. Structures and Nomenclature |
20.1 |
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2. Synthesis of Aldehydes and Ketones : Review of "Old" Methods |
21.6 |
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3 New Synthesis Methods for Aldehydes and Ketones : Introduction to Acid Catalyzed Mechanisms |
N/A |
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3.1 Using 1,3-Dithiane |
N/A |
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3.2 Grignard Addition to Nitriles |
22.18C |
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3.3 Hydrolysis Reactions |
22.14B |
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4. Reactions of Aldehydes and Ketones |
21.7 |
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4.1 Comparing Reactivities of C=C and C=O Bonds |
N/A |
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4.2 Strong and Weak Nucleophiles |
21.7 |
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4.3 Relative Reactivities of Aldehydes and Ketones |
N/A |
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4.4 Reactions with Grignard and Acetylide Reagents as Strong Nucleophiles (Review) |
11.11, 20.9, 20.10, 20.11 |
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4.5 Reactions with Hydride Reagents as Strong Nucleophiles (Review) |
21.8 |
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4.6 Hydrate Formation: Hydroxide as a Strong Nucleophile, Water as a Weak Nucleophile |
21.13 |
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4.7 Factors Controlling Water and Other Addition Equilibria |
21.13A |
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4.8 Acetal and Hemiacetal Formation: Alkoxide as a Strong Nucleophile, Alcohol as a Weak Nucleophile |
21.14 |
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4.9 Controlling Reversibility in Acetal Formation : Introduction to Protecting Groups |
21.15, 21.16 |
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4.10 Amines as Intermediate Nucleophiles |
21.11 |
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4.11 Complete Reduction of C=O (Clemmenson and Wolf-Kischner, Revisit) |
18.14B |
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4.12 Wittig Reaction. Makes a C=C bond in Two Steps |
21.10 |
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5. Summary of Reactions |
N/A |
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J |
Enols and Enolates : Acidities of Carbonyls |
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1. Enolizable Hydrogens |
23.2, 23.3, 23.5 |
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2. Alkylation and Halogenation Reactions of Enols/Enolates |
23.6 |
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2.1 Alpha-Halogenation |
23.7 |
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2.2 Alkylation of Aldehydes/Ketones via Enamines/Enolates |
23.8 |
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2.3 "Template Synthesis" Using Alkylation of the Malonic Ester Enolate |
23.9 |
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3. Aldol and Claisen Reactions of Enols/Enolates |
24.1, 24.5 |
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3.1 Aldol Condensation of Aldehydes/Ketones |
24.1 - 24.4 |
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3.2 Rationalizing the Various Possible Products, How do Carbonyls Know What to do? |
N/A |
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3.3 Crossed Aldol Condensations |
24.2 |
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3.4 Claisen Condensations : Enolates of Esters |
24.5, 24.6 |
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3.5 Aldol/Claisen Summary |
N/A |
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3.6 Aldols/Claisens in Reverse |
N/A |
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4. Summary of Enol/Enolate Reactions |
N/A |
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K |
Carboxylic Acids : Organic Acids |
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1. Nomenclature |
19.2 |
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2. Factors Controlling Acidity |
19.9 - 19.11 |
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3. Preparation of Carboxylic Acids |
N/A |
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3.1 "Old" Methods |
19.7 |
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3.2 New Methods |
20.14A, 22.18A |
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3.3 Carboxylic Acid Synthesis Strategies | N/A |
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4. Reactions of Carboxylic Acids |
N/A |
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4.1 Fischer Esterification |
22.10C |
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4.2 Formation of Acid Chlorides |
22.10A |
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4.3 Reduction with LiAlH4 |
20.7B |
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5. Summary of Reactions |
N/A |
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L |
Carboxylic Acid Derivatives : Addition/Elimination |
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1. Nomenclature |
22.3 |
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1.1 Acid Halide Nomenclature |
22.3A |
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1.2 Anhydride Nomenclature |
22.3B |
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1.3 Ester Nomenclature |
22.3C |
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1.4 Amide Nomenclature |
22.3D |
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1.5 Nitrile Nomenclature |
22.3E |
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1.6 Some Common Names of Acid Derivatives |
22.3 |
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2. Reactivity Order for Acid Derivatives |
22.7 |
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3. Interconversion of Acid Derivatives : Nucleophilc Acyl Substitution |
22.7 |
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3.1 Formation of Anhydrides |
22.8 |
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3.2 Formation of Esters |
22.8, 22.9 |
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3.3 Formation of Amides |
22.8, 22.9, 22.10 |
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4. Hydrolysis Reactions of Acid Derivatives |
N/A |
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4.1 Acid Chlorides and Anhydrides |
N/A |
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4.2 Esters, Require Acid or Base Catalysis |
22.11 |
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4.3 Amides Require Forcing Conditions |
22.13 |
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4.4 Nitriles Also Require Forcing Conditions |
22.18A |
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5. Reduction of Acid Derivatives |
20.7A, 20.7B |
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6. Synthesis Using Acid Derivatives |
22.7 |
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7. Summary of Reactions Involving Acid Derivatives |
N/A |
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M |
Amines : Organic Bases |
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1. Nomenclature |
25.3 |
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2. Amines as Bases |
25.9, 25.10 |
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3. Synthesis of Amines |
25.7 |
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3.1 Amine Synthesis Involving Nucleophile Addition/Reduction |
25.7 |
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3.2 Synthesis of Amines by Reductive Amination |
25.7C |
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4. Reactions of Amines |
N/A |
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4.1 Amines as Nucleophiles |
25.11 |
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4.2 Hofmann Elimination |
25.12 |
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4.3 Diazonium Salts |
25.13 |
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5. Some Amine Reactions in Synthesis |
N/A |
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6. Summary of Reactions Involving Amines |
N/A |