Cellular and Molecular Neuroscience
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| Academic year: | 2008-2009 | | Course code module | 1MBMW-K-006 | | Semester: | 1st semester | | Credits: | 6 | | Study load (hours) | 168 | | Theory (hours): | 30,00 | | Practice/Exercises(hours): | | | Other (hours): | 15,00 | | Part-time program: | 1/2 | | Instructor(s) | Erik De Schutter Dirk Snyders Jean Pierre Timmermans Adam Raes
| | Language of instruction: | English | | Semester exam information: | exam in the 1st semester | | Contract restriction information: | |
1. Prerequisites *Algemene competenties Human anatomy, histology and physiology (BA1-2)
Neuroanatomy and neurophysiology (BA3)
*Sequentiality
2. Objectives (expected learning outcomes) Knowledge and understanding of the biophysical and molecular mechanisms of neural excitability, synaptic transmission and synaptic plasticity.
Knowledge and understanding of the molecular biophysics of gating and permeation of ion channels.
Practical experience in patch clamping and Ca2+ imaging.
Critical evaluation and presentation of original research papers.
3. Course content
Synaptic transmission
Presynaptic mechanisms: neurotransmitters, vesicle cycle and quantal release
Postsynaptic mechanisms: ionotropic and metabotropic receptors, pharmacology
Short-term plasticity and dynamic synapses
Long-term plasticity: molecular mechanisms and signal transduction
Function of dendritic spines
Spike-timing dependent plasticity, metaplasticity and homeostasis
Voltage-gated ion channels
Experimental procedures: voltage clamp, patch clamp, noise analyse, FRET
Molecular biology and diversity of ion channels
Molecular structure-function analysis and pharmacology
Biophysical mechanisms of permeation
Crystal structure of ion channels
Computational biophysical models of voltage-gating
Channel disorders: congenital and acquired disorders of excitability
Neuronal excitability and processing
Action potentials: generation, propagation and retrograde propagation
Firing behavior: accomodation, bursting, afterhyperpolarisation
Function of dendrites in synaptic integration
Practical sessions
Patch clamp experiments and analyse of cells expressing voltage-gated ion channels or neurons, in culture or in slice preparations
Live cell Ca2+ imaging in neurons
Use of computer models of gating, permeation and neural activitity
Critical presentation and discussion or scientific papers related to the topics covered in theory.
4. Teaching method Direct contact: LecturesPractical sessions
5. Assessment method Exam: Oral, with written preparationMultiple choice
6. Compulsory reading – study material Hand-outs & research papers (on blackboard)
Tex books:
Squire LR, Roberts JL, Spitzer NC, Zigmond MJ, McConnell SK and Bloom FE (Eds.) Fundamental Neuroscience , 3rd ed., Academic Press, 2007, ISBN 0123740193.
Hille B. Ion Channels of Excitable Membranes, 3rd ed. Sinauer, 2001, ISBN 0878933212
7. Recommended reading - study material Byrne J.H. and Roberts J.L. From Molecules to Networks. An Introduction to Cellular and Molecular Neuroscience Elsevier Academic Press, 2004, ISBN 0121486605
Sakmann, Neher. Single-Channel Recording (2nd Ed.), Plenum Press, 1995, ISBN 0-306-44870-X.
http://nerve.bsd.uchicago.edu/ (web site F. Bezanilla)
8. Tutoring erik.deschutter@ua.ac.be, dirk.snyders@ua.ac.be , adam.raes@ua.ac.be
laatste aanpassing: last update: 13/12/2007 11:41 annick.debroey
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