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Biology 63 Syllabus (Fall, 1998) 
Molecular Biology 
Homepage URL: www.kenyon.edu/depts/biology/courses/biol63/bio63syl.htm

 

David Marcey  

307 Higley Hall
pbx 5392 or 5396
e-mail: marcey
Office Hours: T &Th, 2:00-4:30 PM
 

 


 
about the course...

Subject Material:

The elaborate interplay of a variety of macromolecules underlies the mechanisms that govern cell function. This course deals with a selection of these mechanisms, those involved in coding and decoding genetic information. Emphasis will be placed on the functional importance of selected protein and nucleic acid structures. It is intended that students emerge from this course with a deep understanding of the molecular machines that control information flow within cells. This course assumes a good understanding of basic molecular genetic mechanisms at the level taught in Biology 7, INTRODUCTION TO GENETICS AND DEVELOPMENT. See DM if you think you might require some remedial reading in this area. Biol 63 is complementary to CELL PHYSIOLOGY, GENETICS, and BIOCHEMISTRY. MOLECULAR BIOLOGY students are encouraged to continue in these classes for a more complete understanding of Molecular and Cellular Biology. 

Course Format:
The material presented in lecture will be complementary to assigned reading, and will emphasize the experimental and historical basis for concepts described in your reading. In addition to traditional lectures, discussions on assigned reading from current and classical molecular biological literature will be expected. You are expected to have completed assignments prior to coming to class, in preparation for discussion. You will be assigned small discussion group membership for some in-class discussions. If necessary, DM will pose questions directly to individual students (you!) to stimulate discussion. 

Texts: 

Genes VI, Benjamin Lewin (L); Introduction to Protein Structure, Branden & Tooze (BT)
Additional Reading:
Some journal articles will be on reserve in the Higley Reading Room 211 

Supplemental Learning Material:

You will also be provided additional learning aids that are accessable on the WWW or on the local Kenyon network. Many slides and Web pages containing material presented in class can be found online or on the network at p:\data\biology\biol63. Also, there are links on this page to useful supplemental information. See linked resources, below. 

Grading:

Your grade will be determined on a 400 point scale: 

  • Three 75 point examinations (take home) 
  • One 125 point WWW-based molecular tutorial 
  • 50 points of class participation 

Examinations will be designed to test student understanding of concepts, methodologies, and experiments, and will not be based on rote memorization. The three mid-term exams are take-home. Your responses to take home questions must be type-written. You may turn them in as hardcopy or as Wordperfect or Microsoft Word formatted files on 1.44 Mb floppy discs or saved to p:\data\biology\biol63\takehome\name of project. The following criteria are used for assigning grades for written work. 

  • "A- to A+": "A" take home exams will demonstrate excellent comprehension of material by lucid explanation, critical analysis, and thorough integration of concepts. "A" exams will have few, if any, grammatical or spelling errors, and will be very well-written. 
  • "B- to B+": "B" take home exams will show good to very good comprehension of material and good, but not excellent, integration of concepts and analysis. "B" exams will be well written, but might not have the sparkle of "A" work. "B" work is considered good work in this class. 
  • "C- to C+": "C" work is of average to fair caliber, needing improvement in writing style, comprehension, and integration of concepts to be considered "good". "C" work demonstrates partial understanding of important concepts. 
  • "D" and "F" work is poorly to very poorly written, and/or shows little to no understanding of concepts. 

The WWW page construction assignment involves building a molecular tutorial in an HTML (HyperText Markup Language) document. You may choose your own molecule, but it must be one of those involved in a central dogma process. You will need to learn RASMOL scripting language to build your tutorial. Handouts on tutorial construction will be provided in the first few weeks of class. You will be required to attend one session outside of class concering web page construction. The project is a WWW-based tutorial on the structure/function relationships of a central dogma or cell-signaling macromolecule of your choice. More information on the project assignment can be found here

Your class participation grade will be based on your discussion in class. 

Academic Honesty and Class Conduct:

It is you responsibility to know the guidelines of the college regarding academic honesty and class conduct. READ THE SECTION ON ACADEMIC HONESTY in the 1998-1999 COURSE OF STUDY to familiarize yourself with the college policies, as this course will follow these guidelines. Please be reminded that if you use the words of another person, whether or not you scientifically cite the source in your text, you also must use quotes around those words. It is important to learn to use your own writing to present ideas and syntheses of ideas. 

Learning Disabilities:

If you have a disability and therefore may have need for some type of accommodation(s) in order to participate fully in this class, please feel free to discuss your concerns in private with me AND BE SURE TO CONTACT Dean Martindell at PBX 5145 or via e-mail at MARTINDELLJ. 

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learning goals & assessments...

Goals 

Assignments & Assessment 

To learn about: 

  • the molecular mechanisms that govern genetic information flow within cells 
  • structure/function relationships of macromolecules 
  • the evolution of the molecular machinery that runs central dogma processes 
  • experimental approaches (both classical and modern) to the study of central dogma processes 

reading, course lectures, discussions, examinations, 

web project 
To learn to use the hypertextual medium of the World Wide Web as a way to present ideas.

web project 

To hone written and oral communication skills.

exams and class & e-mail discussions 

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course outline...
DATE TOPIC READING ASSIGNMENTS
August 28  Introduction to Course, History of Molecular Biology ********************  
Sept. 

31

2

More history, DNA STRUCTURE 

DNA STRUCTURE

DNA: SEMI-CONSERVATIVE REPLICATION 

L: 51-82

L: 82-114 BT: 79-84; 269-285

L: 115-150  
ARTICLE, Meselson and Stahl (1958) 

 
Sept. 

7

9

11 

PROTEIN STRUCTURE

MACROMOLECULAR STRUCTURE, CONTINUED

MACROMOLECULAR STRUCTURE, CONTINUED 

BT: 3-29

L: 1-43

CATCH-UP 

 
Sept. 

14

16

18 

DNA REPLICATION

DNA REPLICATION, CONTINUED

DNA REPLICATION, CONTINUED 

BT: 129-138 L: 429-470

L: 471-504

ARTICLE, Montecucco, et al. (1998)

Sept. 

21

23

25 

DNA RECOMBINATION/REPAIR 

DNA RECOMBINATION/REPAIR

DNA REPAIR 

L: 505-530

L: 531-562

CATCH-UP 

EXAM #1 OUT
Sept. 

Oct.

28

30

RNA TRANSCRIPTION

RNA TRANSCRIPTION, CONTINUED

mRNA PROCESSING 

287-334

L: 809-846

L: 663-686 

Oct.

5

7

mRNA PROCESSING, CONTINUED

CHROMOSOME STRUCTURE 

Reading Day, October Break

L: 885-946

L: 727-742
EXAM #1 IN

Web project proposal (10/7)
Oct. 

12

14

16 

CHROMATIN STRUCTURE

Catch-up I

Catch-up II

L: 743-808

CATCH-UP

CATCH-UP

 
Oct. 

19

21

23 

GENOME STRUCTURE

GENOME STRUCTURE 

GENOME EVOLUTION/TRANSPOSABLE ELEMENTS 

L: 645-662; 687-712

ARTICLE, TBA

L: 563-620 

EXAM #2 OUT
Oct. 

26

28

30 

THE GENETIC CODE 

TRANSLATION

TRANSLATION, CONTINUED 

151-243

ARTICLE, TBA

244-284 

 
Nov. 

2

4

PHAGE LAMBDA BIOLOGY

LAMBDA, A MODEL GENETIC SWITCH

LAMBDA, A MODEL GENETIC SWITCH, CONT. 

395-426

BT: 87-98

ARTICLE, TBA 

EXAM #2 IN
Nov. 

9

11

13 

EUKARYOTIC TRANSCRIPTION FACTORS

MORE EUKARYOTIC TRANSCRIPTION FACTORS

MECHANISMS OF GENE REGULATION 

BT: 113-127

********************

L: 847-884 

MEET ABOUT WEB PROJECTS
Nov.

16

18

20 

MECHANISMS OF GENE REGULATION, CONT.

MECHANISMS OF GENE REGULATION, CONT.

DISCUSSION 

L: 947-1024

ARTICLE, TBA

******************** 

EXAM #3 OUT 
 

MEET ABOUT WEB PROJECTS
Nov. 21- 
29
Thanksgiving Vacation!    
Nov.

Dec.

30

2

POSTRANSCRIPTIONAL REGULATION 

POSTRANSCRIPTIONAL REGULATION 

CANCER BIOLOGY AND THE CENTRAL DOGMA I 

L: 1027-1052

L: 1053-1088
EXAM #3 IN
.

Dec.

7

9

11 

CANCER BIOLOGY AND THE CENTRAL DOGMA II

CANCER BIOLOGY AND THE CENTRAL DOGMA III

DISCUSSION 

L: 1089-1130

L: 1131-1172

******************** 

WEB PROJECTS DUE: December 19th at 4:30 PM!!!!!!!!!!!!!!!!!!

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linked resources...

Online slideshows of lecture graphics 

The Online Macromolecular Museum 

Amino Acid Structures/Properties (interactive) 

Interactive Tutorial: Bonding and Protein Structure 

Interactive tutorial: A-,B-, and Z-DNA structures 

Info Page on the Macromolecular Tutorial Assignment 

Watson & Crick's 1953 Nature Paper 

Pedro's Biomolecular Research Tools 

A Dictionary of Cell Biology 

Virtual Library: Biochemistry and Molecular Biology 

A CHIME Tutorial 

A Kenyon RasMol (RASWIN) Manual (for beginners) 

RasMol Documentation at U. Mass.  

more coming soon.... 

 


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