Gatsby Computational Neuroscience Unit
Alexandra House, 17 Queen Square, LONDON, WC1N 3AR, UK
Tel: +44 (0) 20 7679 1176, Fax +44 (0) 20 7679 1173, admin@gatsby.ucl.ac.uk, www.gatsby.ucl.ac.uk

 

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Theoretical Neuroscience


Schedule

Course materials & Assignments

Date Tuesdays & Fridays
8 October - 10 December 2004

Time 11:00-13:00
Lecturers Peter Latham, Maneesh Sahani, Peter Dayan, Liam Paninski
Location 4th Floor Seminar Room, Alexandra House, 17 Queen Square, London [Please see map]

About the course

 

 

 

 

 

 

 

 

 

 

 

This course provides an introduction to neuroscience from a computational perspective. The emphasis is on mathematical and information processing models of the brain at a range of levels (synapses to behavior) and timescales (milliseconds to days). Topics include biophysics of single neurons, synapses, dendrites and axons; neural coding at the single cell and population level; dynamics of large networks, including computing with population codes; and learning at the systems and behavioral levels.

There are no formal prerequisites for the course. However, we will be making heavy use of mathematical, statistical and computational methods. Students should feel comfortable with linear algebra, ordinary differential equations, and probability theory at the level found in Boas (Mathematical Methods in the Physical Sciences) or Arfken (Mathematical Methods for Physicists).

*Most of the course material will be drawn from the textbook "Theoretical Neuroscience" by Peter Dayan & Larry Abbott (MIT Press, ISBN 0-262-04199-5) unless specified otherwise.

Theoretical Neuroscience is run primarily for new Gatsby students for whom it is mandatory. However, students, postdocs and faculty from outside the unit are welcome to attend the course although should note that it is has no formal course unit value.  The course is suitable for Skills Development credit as required by the Research Councils.  See: http://www.grad.ucl.ac.uk/courses/course-details.pht?course_ID=527

 

Syllabus

Session 1
8.10.04
Hodkin & Huxley
Reading: Chapter 5 *

Session 7
29.10.04
Statistical Structure in Spike Trains

Session 13
19.11.04
"Optimizing" Population Codes

Session 2
12.10.04
Axons & Dendrites
Chapter 6 *
Session 8
2.11.04
Single Cell Coding 1
Session 14
23.11.04
Learning 1
Session 3
15.10.04
Synapses/ltp/ltd
Chapter 5, p178-187
Session 9
5.11.04
Single Cell Coding 2
Session 15
26.11.04
Learning 2
Session 4
19.10.04
Phase Plane Analysis
Chap 7 of "Methods in Neuronal Modeling", 2nd Ed, 1998 (MIT Press)
Session 10
9.11.04
Introduction to Population Coding & Decoding
Session 16
30.11.04
Dynamics of Large Networks 1
Session 5
22.10.04
Reduced Single Neuron Models/Effects of Noise on Firing
Chap 7 of "Methods in Neuronal Modeling", 2nd Ed, 1998 (MIT Press)

Session 11
12.11.04
Information Theory 1
Session 17
3.12.04
Dynamics of Large Networks 2
Session 6
26.10.04
Intro to Systems Neuroscience
Session 12
16.11.04 InformationTheory 2
Session 18
7.12.04
Learning 3
Session 19
10.12.04
Learning 4
To attend: Contact Mary Hardie