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Stanford Unsupervised Feature Learning and Deep Learning Tutorial
Tutorial Website: http://ufldl.stanford.edu/wiki/index.php/UFLDL_Tutorial
Sparse Autoencoder
Sparse Autoencoder vectorized implementation, learning/visualizing features on MNIST data
- load_MNIST.py: Load MNIST images
- sample_images.py: Load sample images for testing sparse auto-encoder
- gradient.py: Functions to compute & check the cost and gradient
- display_network.py: Display visualized features
- sparse_autoencoder.py: Sparse autoencoder cost & gradient functions
- train.py: Train sparse autoencoder with MNIST data and visualize learned featured
Preprocessing: PCA & Whitening
Implement PCA, PCA whitening & ZCA whitening
Softmax Regression
Classify MNIST digits via softmax regression (multivariate logistic regression)
- softmax.py: Softmax regression cost & gradient functions
- softmax_exercise: Classify MNIST digits
Self-Taught Learning and Unsupervised Feature Learning
Classify MNIST digits via self-taught learning paradigm, i.e. learn features via sparse autoencoder using digits 5-9 as unlabelled examples and train softmax regression on digits 0-4 as labeled examples
- stl_exercise.py: Classify MNIST digits via self-taught learning
Building Deep Networks for Classification (Stacked Sparse Autoencoder)
Stacked sparse autoencoder for MNIST digit classification
- stacked_autoencoder.py: Stacked autoencoder cost & gradient functions
- stacked_ae_exercise.py: Classify MNIST digits
Linear Decoders with Autoencoders
Learn features on 8×8 patches of 96×96 STL-10 color images via linear decoder (sparse autoencoder with linear activation function in the output layer)
Working with Large Images (Convolutional Neural Networks)
Classify 64×64 STL-10 images using features learned via linear decoder (previous section) and convolutional neural networks
- cnn.py: Convolution neural networks. Convolve & Pooling functions
- cnn_exercise.py: Classify STL-10 images
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