Theoretical Neuroscience Course Part I 2005

The course has now finished, but you can find the lecture slides, homework assignments and references to articles and books on this site. General course information including a syllabus etc is here. Also have a look at the Gatsby teaching schedule for other courses taught by Gatsby people. This page will mainly contain the weekly assignments and some additional reading. The course is open to anybody from the University of London. If you'd like to attend, please send us an email.

The topics taught fall roughly into the following categories.
Lecturer  Topic
Peter Lathambiophysics, network dynamics
Maneesh Sahani and Jonathan Pillowneural coding
Peter Dayanlearning

The teaching schedule is as follows.
 
Lecturesevery Tuesday and Friday, 11 am - 1 pm, from 4-10 to 16-12
Review Sessionsevery Friday, 9:30 am - 10:55 am
VenueGatsby Unit room 409, 4th floor
Alexandra House, 17 Queen Square
London WC1N 3AR

The teaching assistant is Misha Ahrens. If you have any questions or things you'd specifically like to cover in the review sessions, please email him.
The main course book is Theoretical Neuroscience by Dayan and Abbott. The appendix of the book describes the maths needed for the course. If you need to brush up on mathematics, one recommended book is Riley, Hobson and Bence: Mathematical Methods for Physicists. For a very simple intro to first order ODE's, see Hugh Wilson: spikes, decisions and actions, chapters 1 and 2. A few very useful cribsheets are basic maths you'll need for this course, and some matrix identities. Some other useful resources on the web, including other theoretical neuroscience course sites are here. You might also be interested in the Gatsby neuroscience journal club.
Below is a schedule of the review sessions (updated before every review session). The homework assignments can be downloaded from here. The section "reading" lists background reading material and is (usually) not meant as compulsory.
Date ReadingAssignment
12-10review session 1
biophysics
Hodgkin & Huxley etc
Dayan and Abbott, chapter 5
Hodgkin & Huxley, '52 (the pioneering paper on channel modeling)
lecture slides
homework 1
19-10review session 2
biophysics
cable equation, synapses
Dayan and Abbott, chapter 6
for the keen: Koch (1999) ch. 2-5
Cox and Gabbiani's course site
homework 2
hwk2data.mat
26-10review session 3
systems neuroscience
receptive fields
spike statistics
vision: Dayan and Abbott, chapter 2
Kandell, chapters 25-31
Zigmond, chapters 21, 22, 27, 28
spike statistics: Dayan and Abbott, chapter 1
R. Hahnloser's notes
Maneesh's lecture on neural coding
Maneesh's lecture on spike statistics
homework 3
4-11review session 4
information theory
Dayan and Abbott, chapter 4
Maneesh's notes on information theory (provisional)
homework 4
11-11review session 5
neural encoding and decoding
Jonathan's lecture on neural encoding
Dayan and Abbott, chapters 3-4
a review paper of LN models (Simoncelli et al)
and one on point processes in neuroscience (Brown et al)
homework 5
18-11review session 6
population coding, Fisher information
reinforcement learning
Dayan and Abbot, chapters 3-4, chapter 9
reinforcement learning lecture slides
homework 6
25-11review session 7
plasticity and learning
Dayan and Abbott, chapter 8
lecture slides
homework 7
2-12review session 8
network dynamics
Dayan and Abbott, chapter 7
Wilson and Cowan, 1972 and 1973
homework 8
16-12review session 9
network dynamics and dynamics of differential equations
Dayan and Abbott, chapter 7
Boyce and DiPrima, Elementary differential Equations and Boundary Value Problems
homework 9


Page maintained by Misha Ahrens