Code for "On Memorization in Probabilistic Deep Generative Models"

Overview

On Memorization in Probabilistic Deep Generative Models

This repository contains the code necessary to reproduce the experiments in On Memorization in Probabilistic Deep Generative Models. You can also use this code to measure memorization in other types of probabilistic deep generative models. If you use our code in your own work please cite the paper using, for instance, the following BibTeX entry:

@article{van2021memorization,
  title={On Memorization in Probabilistic Deep Generative Models},
  author={{Van den Burg}, G. J. J. and Williams, C. K. I.},
  journal={arXiv preprint arXiv:2106.03216},
  year={2021}
}

If you have any questions or encounter an issue when using this code, please send an email to gertjanvandenburg at gmail dot com.

Introduction

The files in the scripts directory are needed to reproduce the experiments and generate the figures in the paper. The experiments are organized using the Makefile provided. To reproduce the experiments or recreate the figures from the analysis, you'll have to install a number of dependencies. We use PyTorch to implement the deep learning algorithms. If you don't wish to re-run all the models, you can download the result files used in the paper (see below).

The scripts are all written in Python, and the necessary external dependencies can be found in the requirements.txt file. These can be installed using:

$ pip install -r requirements.txt

To recreate the figures the following system dependencies are also needed: pdflatex, latexmk, lualatex, and make. These programs are available for all major platforms.

Reproducing the results

To train the models on the different data sets, you can run:

$ make memorization

Note that depending on your machine this may take some time, so it might be easier to simply download the result files instead. It is also worth mentioning that while we have made an effort to ensure reproducibility by setting the random seed in PyTorch, platform or package version differences may result in slightly different output files (see also PyTorch Reproducibility).

All figures in the paper are generated from the raw result files using Python scripts. First, the summarize.py script takes the raw result files and creates summary files for each data set. Next, the analysis scripts are used to generate the figures, most of which are LaTeX files that require compilation using PDFLaTeX or LuaLaTeX. Simply run:

$ make analysis

to create the summaries and the output files. When using the result files linked below this will give the exact same figures as shown in the paper.

Result files

Due to their size, the raw result files are not contained in this repository, but can be downloaded separately from this link (about 2.6GB). After downloading the results.zip file, unpack it and move the results directory to where you've cloned this repository (so adjacent to the scripts directory). Below is a concise overview of the necessary commands:

$ git clone https://github.com/alan-turing-institute/memorization
$ cd memorization
$ wget https://gertjanvandenburg.com/projects/memorization/results.zip # or download the file in some other way
$ unzip results.zip
$ touch results/*/*/*          # update modification time of the result files
$ make analysis                # optionally, run ``make -n analysis`` first to see what will happen

After unpacking the zip file, you can optionally verify the integrity of the results using the SHA-256 checksums provided:

$ sha256sum --check results.sha256

License

The code in this repository is licensed under the MIT license. See the LICENSE file for further details. Reuse of the code in this repository is allowed, but should cite our paper.

Notes

If you find any problems or have a suggestion for improvement of this repository, please let me know as it will help make this resource better for everyone.

Owner
The Alan Turing Institute
The UK's national institute for data science and artificial intelligence.
The Alan Turing Institute
Implementation of hyperparameter optimization/tuning methods for machine learning & deep learning models

Hyperparameter Optimization of Machine Learning Algorithms This code provides a hyper-parameter optimization implementation for machine learning algor

Li Yang 1.1k Dec 19, 2022
Official implementation of the NeurIPS'21 paper 'Conditional Generation Using Polynomial Expansions'.

Conditional Generation Using Polynomial Expansions Official implementation of the conditional image generation experiments as described on the NeurIPS

Grigoris 4 Aug 07, 2022
Exe-to-xlsm - Simple script to create VBscript of exe and inject to xlsm

🎁 Exe To Office Executable file injection to Office documents: .xlsm, .docm, .p

3 Jan 25, 2022
This initial strategy was developed specifically for larger pools and is based on taking a moving average and deriving Bollinger Bands to create a projected active liquidity range.

Gamma's Strategy One This initial strategy was developed specifically for larger pools and is based on taking a moving average and deriving Bollinger

Gamma Strategies 46 Dec 02, 2022
Tracking Progress in Question Answering over Knowledge Graphs

Tracking Progress in Question Answering over Knowledge Graphs Table of contents Question Answering Systems with Descriptions The QA Systems Table cont

Knowledge Graph Question Answering 47 Jan 02, 2023
Pytorch implementation of Decoupled Spatial-Temporal Transformer for Video Inpainting

Decoupled Spatial-Temporal Transformer for Video Inpainting By Rui Liu, Hanming Deng, Yangyi Huang, Xiaoyu Shi, Lewei Lu, Wenxiu Sun, Xiaogang Wang, J

51 Dec 13, 2022
Predicting Auction Sale Price using the kaggle bulldozer auction sales data: Modeling with Ensembles vs Neural Network

Predicting Auction Sale Price using the kaggle bulldozer auction sales data: Modeling with Ensembles vs Neural Network The performances of tree ensemb

Mustapha Unubi Momoh 2 Sep 13, 2022
MNIST, but with Bezier curves instead of pixels

bezier-mnist This is a work-in-progress vector version of the MNIST dataset. Samples Here are some samples from the training set. Note that, while the

Alex Nichol 15 Jan 16, 2022
[WACV 2020] Reducing Footskate in Human Motion Reconstruction with Ground Contact Constraints

Reducing Footskate in Human Motion Reconstruction with Ground Contact Constraints Official implementation for Reducing Footskate in Human Motion Recon

Virginia Tech Vision and Learning Lab 38 Nov 01, 2022
Fuzzing JavaScript Engines with Aspect-preserving Mutation

DIE Repository for "Fuzzing JavaScript Engines with Aspect-preserving Mutation" (in S&P'20). You can check the paper for technical details. Environmen

gts3.org (<a href=[email protected])"> 190 Dec 11, 2022
A PyTorch implementation of deep-learning-based registration

DiffuseMorph Implementation A PyTorch implementation of deep-learning-based registration. Requirements OS : Ubuntu / Windows Python 3.6 PyTorch 1.4.0

24 Jan 03, 2023
PyTorch implementation of DCT fast weight RNNs

DCT based fast weights This repository contains the official code for the paper: Training and Generating Neural Networks in Compressed Weight Space. T

Kazuki Irie 4 Dec 24, 2022
Bi-level feature alignment for versatile image translation and manipulation (Under submission of TPAMI)

Bi-level feature alignment for versatile image translation and manipulation (Under submission of TPAMI) Preparation Clone the Synchronized-BatchNorm-P

Fangneng Zhan 12 Aug 10, 2022
Official code of our work, AVATAR: A Parallel Corpus for Java-Python Program Translation.

AVATAR Official code of our work, AVATAR: A Parallel Corpus for Java-Python Program Translation. AVATAR stands for jAVA-pyThon progrAm tRanslation. AV

Wasi Ahmad 26 Dec 03, 2022
A Python package for generating concise, high-quality summaries of a probability distribution

GoodPoints A Python package for generating concise, high-quality summaries of a probability distribution GoodPoints is a collection of tools for compr

Microsoft 28 Oct 10, 2022
Improving Object Detection by Estimating Bounding Box Quality Accurately

Improving Object Detection by Estimating Bounding Box Quality Accurately Abstrac

2 Apr 14, 2022
GUI for a Vocal Remover that uses Deep Neural Networks.

GUI for a Vocal Remover that uses Deep Neural Networks.

4.4k Jan 07, 2023
Scheduling BilinearRewards

Scheduling_BilinearRewards Requirement Python 3 =3.5 Structure main.py This file includes the main function. For getting the results in Figure 1, ple

junghun.kim 0 Nov 25, 2021
This repository contains code, network definitions and pre-trained models for working on remote sensing images using deep learning

Deep learning for Earth Observation This repository contains code, network definitions and pre-trained models for working on remote sensing images usi

Nicolas Audebert 447 Jan 05, 2023
Interpretable-contrastive-word-mover-s-embedding

Interpretable-contrastive-word-mover-s-embedding Paper Datasets Here is a Dropbox link to the datasets used in the paper: https://www.dropbox.com/sh/n

0 Nov 02, 2021