Neural and Behavioral Modeling @ NTU, given by Prof. Tsung-Ren Huang.
Week | Subject |
---|---|
01 | National Holiday |
02 | Course Introduction: Models & modeling |
03 | Behavioral Modeling (1/2): System dynamics |
04 | Behavioral Modeling (2/2): Agent-based modeling |
05 | Computational Cognitive Science (1/2): Basics |
06 | National Holiday |
07 | Computational Cognitive Science (2/2): Advanced |
08 | Computational Cognitive Neuroscience (1/8): Modeling principles & canonical neural computation |
09 | Computational Cognitive Neuroscience (2/8): Overview of learning & memory |
10 | Computational Cognitive Neuroscience (3/8): Local/shallow learning & memory |
11 | Computational Cognitive Neuroscience (4/8): Global/deep learning & memory |
12 | Computational Cognitive Neuroscience (5/8): Deep convolutional neural networks |
13 | Computational Cognitive Neuroscience (6/8): Deep reinforcement learning |
14 | Computational Cognitive Neuroscience (7/8): Deep recurrent neural networks |
15 | Computational Cognitive Neuroscience (8/8): Advanced issues & models |
16 | Computational Neuroscience (1/2): 1 spiking neuron |
17 | Computational Neuroscience (2/2): N spiking neurons |
# | Description |
---|---|
01 | no assignment |
02 | 1. Party Simulation 2. Shunting Equation |
03 | 1. Nonlinear love triangle 2. Tragedy of the Commons |
04 | Replicate one Agent-Based Model (group genesis in homogeneous population) |
05 | 1. Drifit Diffusion Model 2. Port EZdata.m from Matlab to Python |
08 | Replicate Sequence Memory Model |
09 | no assignment |
10 | 2-layered Linear Network(numpy & pytorch version) |
11 | Tuning the performance of a neural net |
12 | 1. Neural Network performance assessment 2. Universal Approximation Theorem |
14 | Activation/Signal Function in RNN |
15 | 1. Visualizing the latent space of an autoencoder 2. Integer Factorization |
16 | Integrate-and-Fire Neuron with a Refractory Period |
17 | (optional) |