Chem 332
Spring 2010
Lecture MWF, 10:10-11 AM in 101 Brown Labs
Professor Joseph M. Fox
272 Brown Labs
302-831-0191
jmfox@udel.edu
Office hours: Mondays 11-12, or by
appointment.
Contact
me by email to schedule an appointment.
Textbooks:
Organic Chemistry, Vollhardt and Schore, 5th Edition
Organic Chemistry Study Guide, Schore
A Molecular Model Set is also required
Links and resources:
Chem 334
Laboratory course that accompanies Chem 332
Chem 332 from Spring 2003:
resource for old problems
Chem 332 from Spring 2005
Chem 332 from Spring 2006
Chem 332 from Spring 2007
Chem 332 from Spring 2008
Chem 332 from Spring
2009
Prof.
Taber's course page: resource for old problems
Handouts
polymer lecture
Handout on IR
Handout on Mass Spec
Handout on Solid Phase Synthesis and
Sugar
Chemistry
Grading
There will be three hour exams, three quizzes and a
final exam. Exams 1-3 will each be worth 20% of the final
grade. Quizes will each be worth 5% of the grade. The final
exam will be worth 25% of the grade. Exams are CLOSED
BOOK/NOTES. Molecular models are allowed
during exams.
Exam and Quiz Schedule:
Quiz
1 on March 8
Exam
1 on March 10
Quiz
2 on April 9
Exam
2 on April 12
Quiz
3 on May 7
Exam
3 on May 10
FINAL
exam TBA
FOR
THOSE ALSO
ENROLLED IN CHEM 334:
Chem
334 Lab Exam April 26, 7-10 pm in 101
BrL (please contact me if you have a conflict with this time/date)
in addition to
end-of-chapter problems (to be assigned in class)
Problem
Sets: 1 2 3 4 5 6 7 8 9
Problem
Set
Answers: 1 2 3 4 5 6 7 8 9
for more problems: Chem 332 from Spring 2003
extra synthesis
problems: 1
extra
synthesis problem answers: 1
2010 Exams: 1
2
3
4
2010 Exam Answers 1
2
3
4
2010 Quizzes: 1
2
3
4
2010 Quiz Answers 1
2
3
4
2009 Exams: 1
2 3 4
2009 Exam Answers 1
2 3 4
2009 Quizzes: 1
2 3 4
2009 Quiz Answers 1
2 3 4
2008
Exams:
1
2 3 4
2008 Exam Answers 1
2 3 4
2007 Exams: 1
2 3 4
2007 Exam Answers 1
2 3 4
2006 Exams:
1 2 3 4
2006
Exam Answers: 1
2
3 4
2005
Exams:
1
2 3 4
2005
Exam
Answers: 1 2 3 4
Learning Goals
The Learning Goals for this course include
developing the following:
1) a qualitative understanding of molecular orbital theory, and
application to the understanding of molecular reactivity.
Students will also develop an understanding of the relationships
between resonance structures and molecular orbital theory.
2) an understanding of how to apply organic reactivity to the synthesis
of complex structures.
3) an understanding multistep, arrow pushing mechanisms
4) an understanding of how structure and bonding effects
the properties of amines . An understanding of
methods for synthesizing amines, and an understanding of amine
reactivity
5) an understanding of carbonyl reactivity using MO theory and
resonance structures. Students will also develop an understanding
of methods for generating enolates, and understanding how they can
engage in useful synthetic reactions
6) an understanding of the reactivity of carbonyl compounds as
electrophiles, including a discussion of conjugate addition reactions.
7) an understanding of how dicarbonyl compounds are used in synthetic
organic chemistry
8) an understanding of pericyclic reactions, and the molecular orbital
basis for pericyclic reactivity. Classes of reactions to be
discussed include:
• electrocyclic cyclizations
• sigmatropic reactions
• cycloaddition reactions: 4+2 (Diels-Alder) vs 2+2 (photochemical)
cycloadditions. Students will develop an understanding of the
basis of regio- and diastereoselectivity in Diels-Alder reactions by
understanding the concept of asynchronous, concerted transition states
• carbene reactivity
9) an understanding of the synthetic utility of the reactions listed in
#8.
10) an understanding of the molecular orbital basis for aromaticity,
and the extension of aromaticity beyond benzenoid systems
11) an understanding of electrophilic aromatic substitution reactions,
and their usefulness in synthesis
12) an understanding of nucleophilic aromatic substitution reactions,
the reactivity of diazonium salts, and benzyne
13) an understanding of how organic reactivity relates to organic
polymers.
14) an understanding of the structure of peptides and proteins.
Students will gain an understanding of methods for the synthesis of
polypeptides
15) an understanding of the structure and reactivity of sugars and
polysaccharides
Syllabus:
Week 1:
Instructions for independent study (of chem 334).
Chp.21 - Amines.
Week 2:
Chp. 17, 18 - Aldehydes and Ketones
Week 3: Ring-forming Reactions: Chp. 19, 20,
23 Carboxylic Acids, Dicarbonyl
Compounds.
Week 4:
Ring-forming Reactions continued: Intramolecular aldol condensation,
Robinson annulation, Dieckmann Review for exam
1.
Week 5: Exam
1 and Quiz 1 this week! Sigmatropic
(electrocyclic) Rearrangements,
Week 6:
Diels-Alder
Photochemical 2+2 additions to make 4 membered
rings.
Carbenes to make 3 membered rings. Chp. 15, 16
Chp. 22 Aromaticity; Benzene Substitution.
Week 7: Chp. 15, 16 Electrophilic Aromatic
Substitution, Diazonium Salts Aromaticity
continued.
SPRING
BREAK
Week 8: Chemistry of Benzene derivatives,
Nucleophilic Aromatic Substitution Quiz
2 this week!
Week 9: Synthesis applications Exam
2 this week!
Week 10: organic
polymers
Week 11: Chp. 12, Chp. 26 Amino Acids,
Peptides Lab exam
2 on Monday
Week 12: Chp. 24 Sugars, Chp. 25
Heterocycles, Quiz 3 this week
Week 13: Chp. 26 DNA, arrow-pushing mechanisms,
synthesis, Exam
3 this week!
Week 14:
Review for final
Bring your questions to the last class
FINAL EXAM:
TBA