Instructor: Dr. Robert Waldeck Office: Loyola 106
Email: waldeckr2@uofs.edu Phone: 570-941-4324
Nicolls, JG, Martin, AR, Wallace, BG, and PA Fuchs. From Neuron to Brain, 4th edition. Sinauer Associates, Sunderland, MA 2001.
Moore, JW and AE Stuart. Neurons in Action. Sinauer Associates, Sunderland, MA 2001.
Reserve material to be assigned.
Course Objectives:
We will begin with the ionic basis of the nervous system. This will be followed by discussions into how information is transferred from one cell to another and how this information may be modified. The last portion of the course will focus on how the ionic
and synaptic parameters lead to behavior.
The objectives described above will be assessed through:
Regular lecture attendance is strongly recommended, and you are responsible for all material discussed in lectures and assigned readings and handouts, whether you are present or not. During lecture, you are encouraged to ask questions and to bring up relevant issues with the instructor. Attendance is in your benefit since exam questions will be based on lecture material
Use of Blackboard: the course outline notes and other material will be placed on the course Blackboard web site. You can access Blackboard at www. Scranton.edu/bb
If you need help with Blackboard please see me as soon as possible. Many of the files that I list are PowerPoint. IF you do not have this software, you can either download the files at University computers or download the PowerPoint viewer software which will allow you to read my files. This information is under Utilities or plug-ins on the Blackboard web site. (Look at the Log On page and press “more info”.
You are responsible to check the Announcements since I will from time to time communcicate to you through this method.
Grading Policy:
1. Three Exams: all will be
comprehensive
You will choose a current primary
research paper from the literature that deals with any of the topics listed in
the syllabus. You will write a review of this paper which is to include the
following items listed below. Along with your review, you must turn in a copy of
the paper being reviewed. Your paper should not be more than 2 pages long (double spaced). Explain in
your words. Due dates for the paper will
be assigned.
Paper should include:
Title of paper, Name of authors, journal
Concise statement of the question being asked
Brief description of the methods
Concise statement of the findings
Is there more than one interpretation of the results? If so, how do the authors discuss this.?
What is new about this topic?
Why did you pick this article?
How does this topic related to what we have been talking about in class?
Constructive criticism of the authors and their work
4. Class Participation: students are encouraged to ask questions.
Lecture Exams: (3 x 100) = 300 points
Review Article/Presentation 25 points
Class Participation 25 points
Total = 350 points
The exams
will include questions on textbook figures, drawings in class, multiple choice,
matching, fill-in, and short and long essay format. Some of the questions will
come from questions posted by the students. The second and third lecture exams will be comprehensive.
There will be no make-up exams. If an exam is missed and you have a written excuse, the grade for that exam will not be counted in calculating the final grade. If you miss an exam and do not give an official written excuse you will receive a 0 for that exam and this grade will be calculated into your final grade.
Grading Scale:
( A ) 100-95, (A-) 94-90, B+ (89-87), B (86-83), B- (82-80), C+ (79-76), C (73-75), C- (72-70), D+ ( 69-66), D (65-60), F 59 or less.
Academic code of honestly:
I expect you to be familiar and follow the University policy.
See: HTTP://ACADEMIC.UOFS.EDU/ORGANIZATION/USENATE/CODEOFHONOR.HTM.
*This schedule may change
over the course of the semester.
|
Date |
Topic |
Assignment |
|
August 26 |
Introduction |
|
|
|
Section 1: Cellular
properties of neurons. |
|
|
August 28 |
Neurons |
Chapter 1 |
|
Sept 2 |
Ion channel properties |
Chapter 2, 3 Sgworth & Neher, 1980; Yang et al 1996. Doyle et al, 1998 |
|
Sept 4 |
Ionic Basis of Resting Membrane potential |
Chapter 5 |
|
Sept 9 |
Techniques and electricity |
Chapter 1, 2 (pp 29-37) |
|
Sept 11 |
Ionic Basis of Action Potential: Hodgkin & Huxley |
Chapter 6 |
|
Sept 16 |
|
|
|
Sept 18 |
Passive properties of neurons |
Chapter 7 |
|
Sept 23 |
Effect of Neuronal Activity on Glial
Cells
|
Chapter 8 (pp 146-150) |
|
Sept 25 |
|
|
|
Sept 30 |
Exam 1 |
|
|
|
Section 2: Synaptic Transmission |
|
|
Oct 2 |
Principles of synaptic Transmission |
Chapter 9 Shepard & Erulkar, 1997 |
|
Oct 4 |
Biochemistry of synaptic Transmission
|
Chapter 13 |
|
Oct 9 |
|
|
|
Oct 14 |
Fall Break
|
|
|
Oct 16 |
Post synaptic mechanisms: Ionotropic receptors (nAChR, GABA) |
Chapter 3 (pp41-49;49-50) |
|
Oct 21 |
Metatropic receptors, Second messenger systems |
Chapter 10 (pp178-180, 184-195) |
|
Oct 23 |
Transmitter Release |
Chapter 11 (pp 199-206, 213-220) articles |
|
Oct 28 |
|
|
|
Oct 30 |
Exam 2 |
|
|
Nov 4 |
Quantal Release |
Chapter 11 (pp 206-213) Fatt & Katz, 1952 |
|
|
|
|
|
Nov 11 |
Synaptic Plasticity |
Chapter 12 Kandel, 2001 |
|
Nov 13 |
Pre vs post synaptic mechamisms |
article |
|
|
Section 3: Networks |
|
|
Nov 18 |
Cellular mechanisms of integration |
Chapter 15 (pp 291-303) |
|
Nov 20 |
Cellular Mechanisms of Motor Control |
Chapter 22 (pp 447-462) |
|
Nov 25 |
|
|
|
Nov 27 |
Thanksgiving Break |
|
|
Dec 2 |
Cellular mechanisms of attention |
(Sherman & Koch, 1990) |
|
Dec 4 |
|
|
|
Final week |
Exam 3 |
|
|
|
|
|
Sherman & Koch, . “Thalamus” in The Synaptic Organization of the Brain, ed Gordon Shepard. Oxford Press, 1990.
Shepard & Erulkar. “Centerary of the synapse: from Sherrington to the molecular biology of the synapse and beyond”. TINS 20: 385-392, 1997.
Kandel, E. “The Molecular Biology of Memory Storage: A dialogue between genes and synapses. Science 294: 1030-1038, 2001.
Sgworth, FJ & Neher, E., “Single Na+ channel currents observed in cultured rat muscle cells. Nature 287: 447-449. 1980.
Yang, N. George, AL, and Horn, R. “Molecular basis of charge movement in voltage gated sodium channels.” Neuron 16: 113-122. 1996
Doyle, DA, Morais Cabral J, Pfuetzner RA, Kuo A, Gulbis JM, Cohen SL, Chait, BT, MacKinnin R. “The structure of the potassium channel: molecular basis of K+ conduction and selectivity.” Science 280: 69-77. 1998
Fatt, P and Katz, B. “ Spontaneous subthreshold activity at motor nerve endings. J Physiol 117: 109-128. 1952.