F/L |
Content |
Staff |
F1 |
Course introduction Modeling of biological processes in cells and multicellular systems, an overview. Introduction to modeling chemical reactions. |
EF |
F2 |
Enzyme kinetics, biochemical networks. |
EF |
F3 |
Enzyme kinetics, biochemical networks, cont. |
EF |
F4 |
Nernst-Planck and Goldmann-Hodgkin-Katz eqn, non linear membranes, electrical equivalent circuits. |
EF |
F5 |
Voltage and ligand gated ion channels, Hodgkin-Huxley eqn, stochastic models |
EF |
L1 |
Biochemical networks |
SA |
F6 |
Passive and active electrical properties, cable equations, compartment models |
EF |
L1 |
Biochemical networks |
SA |
F7 |
Diffusion. Simplified neuron models. |
EF |
L2 |
Ion movement, cell membranes, ion channels |
SA |
F8 |
Genetic networks. Reverse engineering of biochemical networks. |
EF |
L2 |
Ion movement, cell membranes, ion channels |
SA |
L31 |
Diffusion + genetic networks |
SA |
L31 |
Diffusion + genetic networks |
SA |
F9 |
Synaptic transmission, Pre- and postsynaptic mechanisms, plasticity |
EF |
L41 |
Neuron models I + Neuron models II |
SA |
F10 |
Neural networks and systems. Project planning. |
EF
|
L41 |
Neuron models I + Neuron models II |
SA |
T |
Exam |
EF |
L5 |
Neural networks |
SA |
L5 |
Neural networks |
SA |
F11 |
Project review |
EF |
|
|
|
EF = Erik Fransén
SA = Sten Andersson
1 L3 or L4 should be done, the time of the lab that you don't do can be used as extra time
LAB1 1.5p Lab1, 2, 4 (lab 4 can be replaced by lab3).
PROJ2 3p Lab5 + Project
TEN2 4.5p Exam