Resources for instructors
Instructor answer booklet available with proof of credentials via MIT Press.
Request an exam/desk copy via MIT Press.
Figures in PDF (vector) / SVG (vector) / Powerpoint (images):
Chapter 1 – Introduction: PDF
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Chapter 2 – Supervised learning: PDF Figures / SVG Figures
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Chapter 3 – Shallow neural networks: PDF Figures / SVG Figures
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Chapter 4 – Deep neural networks: PDF Figures / SVG Figures
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Chapter 5 – Loss functions: PDF
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Chapter 6 – Training models: PDF
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Chapter 7 – Gradients and initialization: PDF Figures / SVG Figures
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Chapter 8 – Measuring performance: PDF Figures / SVG Figures
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Chapter 9 – Regularization: PDF
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Chapter 10 – Convolutional networks: PDF Figures / SVG Figures
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Chapter 11 – Residual networks: PDF Figures / SVG Figures
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Chapter 12 – Transformers: PDF
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Chapter 13 – Graph neural networks: PDF Figures / SVG Figures
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Chapter 14 – Unsupervised learning: PDF Figures / SVG Figures
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Chapter 15 – Generative adversarial networks: PDF Figures / SVG Figures
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Chapter 16 – Normalizing flows: PDF Figures / SVG Figures
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Chapter 17 – Variational autoencoders: PDF Figures / SVG Figures
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Chapter 18 – Diffusion models: PDF Figures /
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Chapter 19 – Deep reinforcement learning: PDF Figures / SVG Figures
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Chapter 20 – Why does deep learning work?: PDF Figures / SVG Figures
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Chapter 21 – Deep learning and ethics: PDF Figures / SVG Figures/
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Appendices – PDF
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Instructions for editing figures / equations can be found here.
Resources for students
Answers to selected questions: PDF
Python notebooks: (Early ones more thoroughly tested than later ones!)
Notebook 1.1 – Background mathematics: ipynb/colab
Notebook 2.1 – Supervised learning: ipynb/colab
Notebook 3.1 – Shallow networks I: ipynb/colab
Notebook 3.2 – Shallow networks II: ipynb/colab
Notebook 3.3 – Shallow network regions: ipynb/colab
Notebook 3.4 – Activation functions: ipynb/colab
Notebook 4.1 – Composing networks: ipynb/colab
Notebook 4.2 – Clipping functions: ipynb/colab
Notebook 4.3 – Deep networks: ipynb/colab
Notebook 5.1 – Least squares loss: ipynb/colab
Notebook 5.2 – Binary cross-entropy loss: ipynb/colab
Notebook 5.3 – Multiclass cross-entropy loss: ipynb/colab
Notebook 6.1 – Line search: ipynb/colab
Notebook 6.2 – Gradient descent: ipynb/colab
Notebook 6.3 – Stochastic gradient descent: ipynb/colab
Notebook 6.4 – Momentum: ipynb/colab
Notebook 6.5 – Adam: ipynb/colab
Notebook 7.1 – Backpropagation in toy model: ipynb/colab
Notebook 7.2 – Backpropagation: ipynb/colab
Notebook 7.3 – Initialization: ipynb/colab
Notebook 8.1 – MNIST-1D performance: ipynb/colab
Notebook 8.2 – Bias-variance trade-off: ipynb/colab
Notebook 8.3 – Double descent: ipynb/colab
Notebook 8.4 – High-dimensional spaces: ipynb/colab
Notebook 9.1 – L2 regularization: ipynb/colab
Notebook 9.2 – Implicit regularization: ipynb/colab
Notebook 9.3 – Ensembling: ipynb/colab
Notebook 9.4 – Bayesian approach: ipynb/colab
Notebook 9.5 – Augmentation ipynb/colab
Notebook 10.1 – 1D convolution: ipynb/colab
Notebook 10.2 – Convolution for MNIST-1D: ipynb/colab
Notebook 10.3 – 2D convolution: ipynb/colab
Notebook 10.4 – Downsampling & upsampling: ipynb/colab
Notebook 10.5 – Convolution for MNIST: ipynb/colab
Notebook 11.1 – Shattered gradients: ipynb/colab
Notebook 11.2 – Residual networks: ipynb/colab
Notebook 11.3 – Batch normalization: ipynb/colab
Notebook 12.1 – Self-attention: ipynb/colab
Notebook 12.2 – Multi-head self-attention: ipynb/colab
Notebook 12.3 – Tokenization: ipynb/colab
Notebook 12.4 – Decoding strategies: ipynb/colab
Notebook 13.1 – Encoding graphs: ipynb/colab
Notebook 13.2 – Graph classification : ipynb/colab
Notebook 13.3 – Neighborhood sampling: ipynb/colab
Notebook 13.4 – Graph attention: ipynb/colab
Notebook 15.1 – GAN toy example: ipynb/colab
Notebook 15.2 – Wasserstein distance: ipynb/colab
Notebook 16.1 – 1D normalizing flows: ipynb/colab
Notebook 16.2 – Autoregressive flows: ipynb/colab
Notebook 16.3 – Contraction mappings: ipynb/colab
Notebook 17.1 – Latent variable models: ipynb/colab
Notebook 17.2 – Reparameterization trick: ipynb/colab
Notebook 17.3 – Importance sampling: ipynb/colab
Notebook 18.1 – Diffusion encoder: ipynb/colab
Notebook 18.2 – 1D diffusion model: ipynb/colab
Notebook 18.3 – Reparameterized model: ipynb/colab
Notebook 18.4 – Families of diffusion models: ipynb/colab
Notebook 19.1 – Markov decision processes: ipynb/colab
Notebook 19.2 – Dynamic programming: ipynb/colab
Notebook 19.3 – Monte-Carlo methods: ipynb/colab
Notebook 19.4 – Temporal difference methods: ipynb/colab
Notebook 19.5 – Control variates: ipynb/colab
Notebook 20.1 – Random data: ipynb/colab
Notebook 20.2 – Full-batch gradient descent: ipynb/colab
Notebook 20.3 – Lottery tickets: ipynb/colab
Notebook 20.4 – Adversarial attacks: ipynb/colab
Notebook 21.1 – Bias mitigation: ipynb/colab
Notebook 21.2 – Explainability: ipynb/colab
Citation
@book{prince2023understanding,
author=”Simon J.D. Prince”,
title=”Understanding Deep Learning”,
publisher=”MIT Press”,
year=2023,
url=”http://udlbook.com”
}
>>> Read full article>>>
Copyright for syndicated content belongs to the linked Source : Hacker News – https://udlbook.github.io/udlbook/
