On Evaluation Metrics for Graph Generative Models

Overview

On Evaluation Metrics for Graph Generative Models

Authors: Rylee Thompson, Boris Knyazev, Elahe Ghalebi, Jungtaek Kim, Graham Taylor

This is the official repository for the paper On Evaluation Metrics for Graph Generative Models (hyperlink TBD). Our evaluation metrics enable the efficient computation of the distance between two sets of graphs regardless of domain. In addition, they are more expressive than previous metrics and easily incorporate continuous node and edge features in evaluation. If you're primarily interested in using our metrics in your work, please see evaluation/ for a more lightweight setup and installation and Evaluation_examples.ipynb for examples on how to utilize our code. The remainder of this README describes how to recreate our results which introduces additional dependencies.

Table of Contents

Requirements and installation

The main requirements are:

  • Python 3.7
  • PyTorch 1.8.1
  • DGL 0.6.1
pip install -r requirements.txt

Following that, install an appropriate version of DGL 0.6.1 for your system and download the proteins and ego datasets by running ./download_datasets.sh.

Reproducing main results

The arguments of our scripts are described in config.py.

Permutation experiments

Below, examples to run the scripts to run certain experiments are shown. In general, experiments can be run as:

python main.py --permutation_type={permutation type} --dataset={dataset}\
{feature_extractor} {feature_extractor_args}

For example, to run the mixing random graphs experiment on the proteins dataset using random-GNN-based metrics for a single random seed:

python main.py --permutation_type=mixing-random --dataset=proteins\
gnn

The hyperparameters of the GNN are set to our recommendations by default, however, they are easily changed by additional flags. To run the same experiment using the degree MMD metric:

python main.py --permutation_type=mixing-random --dataset=proteins\
mmd-structure --statistic=degree

Rank correlations are automatically computed and printed at the end of each experiment, and results are stored in experiment_results/. Recreating our results requires running variations of the above commands thousands of times. To generate these commands and store them in a bash script automatically, run python create_bash_script.py.

Pretraining GNNs

To pretrain a GNN for use in our permutation experiments, run python GIN_train.py, and see GIN_train.py for tweakable hyperparameters. Alternatively, the pretrained models used in our experiments can be downloaded by running ./download_pretrained_models.sh. Once you have a pretrained model, the permutation experiments can be ran using:

python main.py --permutation_type={permutation type} --dataset={dataset}\
gnn --use_pretrained {feature_extractor_args}

Generating graphs

Some of our experiments use graphs generated by GRAN. To find instructions on training and generating graphs using GRAN, please see the official GRAN repository. Alternatively, the graphs generated by GRAN used in our experiments can be downloaded by running ./download_gran_graphs.sh.

Visualization

All code for visualizing results and creating tables is found in data_visualization.ipynb.

License

We release our code under the MIT license.

Citation

@inproceedings{thompson2022evaluation,
  title={On Evaluation Metrics for Graph Generative Models},
  author={Thompson, Rylee, and Knyazev, Boris and Ghalebi, Elahe and Kim, Jungtaek, and Taylor, Graham W},
booktitle={International Conference on Learning Representations},
  year={2022}  
}
Clockwork Variational Autoencoder

Clockwork Variational Autoencoders (CW-VAE) Vaibhav Saxena, Jimmy Ba, Danijar Hafner If you find this code useful, please reference in your paper: @ar

Vaibhav Saxena 35 Nov 06, 2022
Chinese clinical named entity recognition using pre-trained BERT model

Chinese clinical named entity recognition (CNER) using pre-trained BERT model Introduction Code for paper Chinese clinical named entity recognition wi

Xiangyang Li 109 Dec 14, 2022
Pytorch Implementation of "Contrastive Representation Learning for Exemplar-Guided Paraphrase Generation"

CRL_EGPG Pytorch Implementation of Contrastive Representation Learning for Exemplar-Guided Paraphrase Generation We use contrastive loss implemented b

YHR 25 Nov 14, 2022
Training Structured Neural Networks Through Manifold Identification and Variance Reduction

Training Structured Neural Networks Through Manifold Identification and Variance Reduction This repository is a pytorch implementation of the Regulari

0 Dec 23, 2021
This repo contains the code for the paper "Efficient hierarchical Bayesian inference for spatio-temporal regression models in neuroimaging" that has been accepted to NeurIPS 2021.

Dugh-NeurIPS-2021 This repo contains the code for the paper "Efficient hierarchical Bayesian inference for spatio-temporal regression models in neuroi

Ali Hashemi 5 Jul 12, 2022
Extending JAX with custom C++ and CUDA code

Extending JAX with custom C++ and CUDA code This repository is meant as a tutorial demonstrating the infrastructure required to provide custom ops in

Dan Foreman-Mackey 237 Dec 23, 2022
[IEEE Transactions on Computational Imaging] Self-Gated Memory Recurrent Network for Efficient Scalable HDR Deghosting

Few-shot Deep HDR Deghosting This repository contains code and pretrained models for our paper: Self-Gated Memory Recurrent Network for Efficient Scal

Susmit Agrawal 4 Dec 29, 2021
Parameter Efficient Deep Probabilistic Forecasting

PEDPF Parameter Efficient Deep Probabilistic Forecasting (PEDPF) is a repository containing code to run experiments for several deep learning based pr

Olivier Sprangers 10 Jun 13, 2022
Metric learning algorithms in Python

metric-learn: Metric Learning in Python metric-learn contains efficient Python implementations of several popular supervised and weakly-supervised met

1.3k Dec 28, 2022
Train emoji embeddings based on emoji descriptions.

emoji2vec This is my attempt to train, visualize and evaluate emoji embeddings as presented by Ben Eisner, Tim Rocktäschel, Isabelle Augenstein, Matko

Miruna Pislar 17 Sep 03, 2022
Repository for the paper "From global to local MDI variable importances for random forests and when they are Shapley values"

From global to local MDI variable importances for random forests and when they are Shapley values Antonio Sutera ( Antonio Sutera 3 Feb 23, 2022

Vision-Language Pre-training for Image Captioning and Question Answering

VLP This repo hosts the source code for our AAAI2020 work Vision-Language Pre-training (VLP). We have released the pre-trained model on Conceptual Cap

Luowei Zhou 373 Jan 03, 2023
fklearn: Functional Machine Learning

fklearn: Functional Machine Learning fklearn uses functional programming principles to make it easier to solve real problems with Machine Learning. Th

nubank 1.4k Dec 07, 2022
A solution to ensure Crowd Management with Contactless and Safe systems.

CovidTrack A Solution to ensure Crowd Management with Contactless and Safe systems. ML Model Mask Detection Social Distancing Detection Analytics Page

Om Khare 1 Nov 10, 2021
PyTorch implementation of Weak-shot Fine-grained Classification via Similarity Transfer

SimTrans-Weak-Shot-Classification This repository contains the official PyTorch implementation of the following paper: Weak-shot Fine-grained Classifi

BCMI 60 Dec 02, 2022
This repository is the official implementation of Using Time-Series Privileged Information for Provably Efficient Learning of Prediction Models

Using Time-Series Privileged Information for Provably Efficient Learning of Prediction Models Link to paper Abstract We study prediction of future out

Rickard Karlsson 2 Aug 19, 2022
LBBA-boosted WSOD

LBBA-boosted WSOD Summary Our code is based on ruotianluo/pytorch-faster-rcnn and WSCDN Sincerely thanks for your resources. Newer version of our code

Martin Dong 20 Sep 19, 2022
Cosine Annealing With Warmup

CosineAnnealingWithWarmup Formulation The learning rate is annealed using a cosine schedule over the course of learning of n_total total steps with an

zhuyun 4 Apr 18, 2022
Example of semantic segmentation in Keras

keras-semantic-segmentation-example Example of semantic segmentation in Keras Single class example: Generated data: random ellipse with random color o

53 Mar 23, 2022
Accelerated Multi-Modal MR Imaging with Transformers

Accelerated Multi-Modal MR Imaging with Transformers Dependencies numpy==1.18.5 scikit_image==0.16.2 torchvision==0.8.1 torch==1.7.0 runstats==1.8.0 p

54 Dec 16, 2022