PLU
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Reactants in a Diels-Alder Cycloaddition |
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| Philosophy of Life | Course Calendar |
| Course Materials | Organic Study Sheets |
| Classroom Activities | Learning Groups |
| Homework | Use of Computers |
| The Organic Journal Club (TOJC) | |
| CD Resources and Molecular Models | Academic Policies and Grading |
| Organic Tool Kit | Organic Home Page |
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Chem 334 (Organic Chemistry II Laboratory) |
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Chemistry 332 is the second term course in Organic Chemistry. The topics covered in Chemistry 332 build upon fundamental principles and reactions learned during the first term of Organic Chemistry (Chemistry 232). In this course we will discuss the properties of conjugated and aromatic compounds, carbonyl compounds, amines, phenols, and biological molecules such as carbohydrates, lipids, proteins, and nucleic acids. By the end of chemistry 332 you will have a well-rounded appreciation for the scope of organic chemistry. You will have become acquainted with many classic reactions in organic chemistry, a wide range of functional groups, and the essential classes of biomolecules with which living systems are built. Just as for the first term course, it is my hope that the broadening of your acquaintance with organic chemistry this semester will inspire an appreciation for the beauty of chemistry's fundamental role in life processes. There is much to learn, and substantial effort on both of our parts is expected and necessary in this endeavor. All of our efforts are worthwhile, however, as we come to more fully appreciate the wonderful intertwining of chemistry with all of life.
Although it may appear that organic chemistry is the ultimate test of one's ability to simply memorize reactions, this is not so. It is still true in Chemistry 332, as it was in Chemistry 232, that by developing command of a select and relatively small set of rudimentary concepts and reaction types, one can generalize to a large number of other organic reactions. To be sure, there is challenge involved in learning the essential principles, but there is also much beauty and elegance to behold when one sees the interrelationships among these principles and begins to apply them creatively in broader situations.
| Monday | Wednesday | Friday |
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| W Written Exercise
D Lecture/Discussion/Requests LG Learning Group Presentations |
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Introduction/13 |
13-W |
13-D |
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13-LG |
14-W |
14-D |
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14-LG |
15-W |
15-D |
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15-LG |
Library Lecture |
Exam I |
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16-W |
16-D |
16-LG |
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17-W |
17-D |
17-LG |
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18-W |
18-D |
Mid-Semester Break |
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18-LG |
19-D |
Review |
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Exam 2 |
19-W |
19-LG |
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20-W |
20-D |
20-LG |
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21-W |
21-D |
Thanksgiving Holiday |
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21-LG |
22-W |
22-D |
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22-LG |
Exam 3 |
23-W |
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23-LG |
24-W |
24-LG |
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Final Exam (ACS Stand.) |
As you read the text, you should take notes on what you are reading. Writing is one of the most important tools for learning. You must work the problems, too, both as you read the text and between reading periods and classes. Many people also find it useful to create their own reaction summaries.
The concepts in organic chemistry build as though they were an inverted pyramid. Hardly any concept is ever learned and discarded. Rather, all the ideas presented become incorporated into a foundation for the understanding of later topics. Regular reading, attentive time spent in class, and interaction with peers in your Learning Group (see below) will ensure that you have the absolute best chance to learn all that you can about organic chemistry and do as well as you can. There simply are no shortcuts.
In-Class Written Problems and Discussion
On the first or second day for each chapter I will provide you with a 5-10 minute closed book, in-class exercise to be worked independently about some aspect of that chapter. My assumption is that you will have read the chapter in advance (at least the early sections) and be prepared to work with some basic concepts from that chapter on the quiz. We will evaluate and discuss this assignment immediately afterward, using it as the guide for our discussion that day. The exercise will be worth ten points, with the best ten out of twelve scores of the semester counted toward your point total. The quizzes will generally help your class total, so long as you attend class faithfully and read ahead. There will be no make-up opportunities for these exercises since there will be more opportunities provided than are counted in the total.
Lecture and Discussion on Requested Topics
On the second day for each chapter our class time may be spent on topics that you request in advance. You can forward your questions, problems, topics of interest, etc., to me in advance in person, by email, phone, or on paper. Some topics for lecture may be generated by postings to The Organic Journal Club (TOJC, see below). I will use your input to shape my discussion so that it addresses material about which you have concerns or questions.
I have written some problems called Learning Group Problems that appear at the end of each chapter. These problems are highly integrative. They draw upon a variety of important concepts from the specific chapter under study, and frequently they utilize concepts you have studied earlier. By working the Learning Group Problems (after you study the chapter and do some other problems), the LGPs will help you use and reinforce your learning of key concepts in organic chemistry. Furthermore, the Learning Group Problems will frequently highlight some interesting aspect of chemistry or expand upon a Chapter Opening Essay or "The Chemistry of..." box. I count on everyone to work on the Learning Group Problems in every chapter as a way to cement their understanding of important topics. Specific groups of students, called Learning Groups, will be responsible for guiding the class through the solution to their two assigned Learning Group Problems. Each of these will be graded on a 35 point scale. More information about that follows.
Learning Group Activities
The class will be divided into groups of 4-6 students. Group membership will be determined at random, but once formed there will be elements of design in how the group functions. On the third day of coverage for a given chapter, one of the assigned Learning Groups will present its solution to the Learning Group Problem for that day. The Learning Group Presentation Schedule is given below. The group's presentation should be about 20 minutes long. A key aspect of the presentation is that it should teach the class about the chemistry in the problem by explaining the rationale and method of the solution. I will grade part of each group's work solely on the merits of their presentation. Members of each group will have defined roles that ensure that all members become equally engaged in solving the problem (see below), but all members may participate in the presentation. Even though only two groups (of 12) are assigned to prepare for each given problem, it behooves all persons in the class (i.e. the remaining groups) to work on each Learning Group Problem, since problems similar to the Learning Group Problems will appear in various forms on exams.
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You will find that working with hand-held molecular models enhances your understanding of organic chemistry immensely. I strongly recommend that you purchase a molecular model kit and use it as you study. A solid understanding of the three-dimensionality of organic molecules is key to doing well in this course. We will occasionally take time in class for your to to build models of example molecules. You may also find computer molecular models useful. A collection of computer molecular models for the textbook is on the CD that accompanies our text. The CD also includes reaction animations and tutorials.
A word about my intended use of email in this class. I expect that every one of you will have a PLU email account for use in this class. I will only use your PLU email address for communication with you (not AOL, Hotmail, Yahoo, etc.), and I won'tl respond to messages from non-PLU email accounts for students in this class. (This is a University Policy for faculty email communication with students.) Computers are available for your use in Rieke Science Center and in the computer user rooms on campus. To use Rieke Science Center computers you will need a password that I will give you in class. My plan is to receive by email your suggested topics for class discussion and problem requests, and also to send you information, assignments, and responses to your questions by email. I usually check my mail several times each work day. My preferred email address is fryhle@rainier.chem.plu.edu, as noted above. (Please use this address rather than fryhlecb@plu.edu.)
The Organic Journal Club - An Email Discussion List
I expect that with establishment of your email account you will subscribe to the PLU email discussion list called organic. To subscribe, send an email message to majordomo@rainier.chem.plu.edu with nothing but Subscribe organic in the body of the message (italics only for emphasis). You must subscribe from a PLU email address. I will remove any subscribers from addresses outside PLU. Once subscribed through this message, all of your future messages to the list should be addressed to organic@rainier.chem.plu.edu. The Organic Chemlist will be used by me to post class-wide announcements, lecture clarifications, and replies to some of your questions. You are also encouraged to use it among yourselves to arrange impromptu study sessions, discuss organic chemistry with each other, and in general communicate about anything germane to Organic at PLU.
Organic I - Fall 1996 |
Organic I - Spring 1997 |
Organic II - Fall 1997 |
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The following are guidelines for participation in The Organic Journal Club:
To increase your access to course information I have provided this course outline and other course information over the World Wide Web at http://rainier.chem.plu.edu/organic.html. You can also access it through links from my home page (http://rainier.chem.plu.edu/fryhle.html). These pages include links to the software and Internet resources mentioned below.
I've put a few worked-out problems on the web called Problem Assist!. These are under development.
Supporting Software and Data
There is a wealth of software and computerized resources available to support courses in organic chemistry. Much of this is available free over the Internet, including software for drawing chemical structures and importing them into formal reports (ISIS /Draw), software for viewing computerized molecular models in three dimensions (Rasmol), archives of organic structures for use with Rasmol, and spectroscopic data and processing programs. Links to this software can be found on my home page (http://rainier.chem.plu.edu/fryhle.html) and the Organic Chemistry Home Page (http://rainier.chem.plu.edu/chemdept/organic.html).
CD Molecular Models and Concept Units
Computer molecular models are available on the CD that accompanies our text. These models are listed in the on-screen index of the CD. (I do not consider these substitutes for hand-held models, howevever. Both types have their specific benefits.) There are also a number of tutorials about topics in the book, called Concept Units as well as some computerized drill problems. The Concept Units were created by Darrell Woodman, University of Washington.
Exam and graded exercises will follow the point distribution described above and also shown below. In order to encourage cooperative learning among all members of a Learning Group, all members of a Learning Group will receive a 15 point Earned Bonus on a given exam score if every member of that Learning Group scores above 75% on any particular exam.
Point Distribution
| Three Exams @ 100 Points Each | 300 Points |
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| 10 Best In-Class Exercises @ 10 Points Each | 100 Points |
| 2 Learning Group Problems @ 35 Points Each | 70 Points |
| Final Exam | 150 Points |
| Possible Learning Group Earned Bonus | 15 Points/Exam |
Absolute Scale for Final Grades
| Grand Total of Points | Percentage of Grand Point Total | Final Grade |
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| 543-620 | 88-100 | A-, A, A+ |
| 443-542 | 72-87 | B-, B, B+ |
| 338-442 | 55-71 | C-, C, C+ |
| 233-337 | 38-54 | D-, D, D+ |
| 0-232 | 0-37 | E |
University Policy: If you need course adaptations or accommodations because of a documented disability, if you have emergency medical information to share with me, or if you need special arrangements in case the building must be evacuated, please make an appointment with me as soon as possible (Rieke 240, X8314), and please contact the Coordinator for Students with Disabilities (Alene Klein, Counseling and Testing Office, Ramstad Hall 106, X 7206). Official notification to the instructor of any disability conditions that may impair a student's academic performance must come from the Coordinator for Students with Disabilities. Without advance warning, such difficulties can not be used later as the basis for requesting make-up course work or reconsideration of grades.
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