CNS: Schedule

 

Note: The below schedule is subject to change. We have intentionally left some weeks empty in order to allow for the flexibility to run revision sessions, go more slowly through lecture material, etc. 

Much of the course follows the content of a previous course, Neural Computation. We provide the lecture notes from Neural Computation and explicitly state which sections are examinable and which are optional (i.e., non-examinable) in the schedule below. In general, anything which is covered in the live lectures (i.e., in the slides) should be considered examinable, and anything which is not covered in the lectures should be considered non-examinable.

The lecture notes can be found here:

Lecture Notes

Other useful reading materials are:

Dayan and Abbott (Theoretical Neuroscience)

Gerstner (Neuronal Dynamics)

Jorge Menendez's Theoretical Neuroscience notes (a nice set of notes covering many of the topics in this course)

Ermentrout and Terman (Mathematical Neuroscience) Ch. 1 - good for single neuron biophysics

The above textbooks can be accessed via the Library Resources section of the course Learn page.

WeekCommencingKey TopicsLecturesLabsReading
121-Sep-2026Introduction to computational neuroscience

Lecture 1 (Introduction to course) [slides: pdf, ppt]

 

Lecture 2 (Overview of computational neuroscience) [slides: pdf]

Lab 0 (Introduction to differential equations) [link to Google Colab] 

 

 

Chapter 1 of lecture notes
228-Sep-2026Models of Neurons

Lecture 3 (Passive membrane dynamics) [slides: pdf]

 

Lecture 4 (The Hodgkin-Huxley Model) [slides: pdf, ppt]

 

Required:

Ch. 2.1-2.2 and 3.1 of lecture notes

Optional:

Ch. 2.3 and 3.2-3.5 and of lecture notes.

Dayan and Abbott Chapter 5

35-Oct-2026Models of synapses and neural firing statistics

 

Lecture 5 (The integrate and fire neuron) [slides: pdf]

 

Lecture 6 (Spike statistics) [slides: pdf]

Lab 1 (Neuron models) [link to Google Colab]

 

Required:

Ch. 5 and 6 of lecture notes

Optional:

Ch. 4 of lecture notes

Dayan and Abbott Ch. 1

412-Oct-2026The early visual system

 

 

Lecture 7 (The early visual system) [slides: pdf]

 

Lecture 8 (Neural coding 1: Information theory) [slides: pdf]

 

Required:

Ch. 7 of lecture notes

Optional

Ch. 8 of lecture notes

Dayan and Abbott Ch. 2 and 4

 

Videos:

Video on Hubel and Wiesel's experiments

Video on LGN on-off neuron

Video on simple and complex cells

519-Oct-2026Neural coding

Lecture 9 (Neural coding 2: Generative models, natural image statistics) [slides: pdf]

 

Lecture 10 (Neural coding 3: Population coding, Fisher information) [slides: pdf]

Lab 2 (Firing statistics) [link to Google Colab] 

 

 

Required:

Ch. 9 of lecture notes

Optional: 

Dayan and Abbott Ch. 3 

626-Oct-2026Network models

 

Lecture 11 (Networks 1)  [slides: pdf]

Lecture 12 (Networks 2) [slides: pdf]

 

Required:

Ch.10 of lecture notes

Optional:

Dayan and Abbott Ch.7

702-Nov-2026Plasticity and learning

 

Lecture 13 (Plasticity) [slides: pdf]

Lecture 14 (Functional models of plasticity and learning) [slides: pdf]

Lab 3 (Neural coding) [link to Google Colab] 

Assignment [Released 06/11, due 12pm 20/11. The attachment is last year's assignment.]

Required: 

Ch. 12 and Ch.13 of lecture notes

Optional:

Dayan and Abbott Ch. 8

809-Nov-2026Memory

 

Lecture 15 (Memory) [slides: pdf]

 

No required reading

 

916-Nov-2026  

Lab 4 (The ring network) [link to Google Colab] 

 

 

 
1023-Nov-2026 

 

 

  
1130-Nov-2026  

 

 

 
1207-Dec-2025Revision Revision session  
13     
14     

License
All rights reserved The University of Edinburgh