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GraphNorm: A Principled Approach to Accelerating Graph Neural Network Training

Tianle Cai*, Shengjie Luo*, Keyulu Xu, Di He, Tie-Yan Liu, Liwei Wang

This repository is the official implementation of GraphNorm: A Principled Approach to Accelerating Graph Neural Network Training, based on the PyTorch and DGL library.

Contact

Tianle Cai (caitianle1998@pku.edu.cn), Shengjie Luo (luosj@stu.pku.edu.cn)

Sincerely appreciate your suggestions on our work!

Overview

GraphNorm is a principled normalization method that accelerates the GNNs training on graph classification tasks, where the key idea is to normalize all nodes for each individual graph with a learnable shift. Theoretically, we show that GraphNorm serves as a preconditioner that smooths the distribution of the graph aggregation's spectrum, and the learnable shift is used to improve the expressiveness of the networks. Empirically, we conduct experiments on several popular benckmark datasets, including the recently released Open Graph Benchmark. Results on datasets with different scale consistently show that GNNs with GraphNorm converge much faster and achieve better generalization performance.

Fig-Overview

Installation

  1. Clone this repository
git clone https://github.com/lsj2408/GraphNorm.git
  1. Install the dependencies (Python 3.6.8)
pip install -r requirements.txt

Examples

Results for Bioinformatics and Social Network datasets

Training

To reproduce Figure 4 in our paper, run as follows:

cd ./GraphNorm_ws/gnn_ws/gnn_example/scripts/example-train-comparison
  • Bioinformatics datasets: MUTAG, PTC, PROTEINS, NCI1

    ./gin-train-bioinformatics.sh
    ./gcn-train-bioinformatics.sh
  • Social Network datasets

    • REDDIT-BINARY

      ./gin-train-rdtb.sh
      ./gcn-train-rdtb.sh
    • IMDB-BINARY

      ./gin-train-imdbb.sh
      ./gcn-train-imdbb.sh
    • COLLAB

      ./gin-train-collab.sh
      ./gcn-train-collab.sh

Results are stored in ./gnn_ws/log/Example-train-performance/, you can use the recorded metric numbers to plot the training curves as Figure 4 in our paper.

Testing

Here we provide examples to reproduce the test results on Bioinformatics and Social Network datasets.

cd ./GraphNorm_ws/gnn_ws/gnn_example/scripts/example-test-comparison
  • PROTEINS:

    ./gin-train-proteins.sh
  • REDDIT-BINARY:

    ./gin-train-rdtb.sh

Results are stored in ./gnn_ws/log/Example-test-performance/. For further results on other datasets, follow the configurations on Appendix C.

Results for Ogbg-molhiv

Training

Training process is performed with 10 different random seeds

  • GCN

    cd ./GraphNorm_ws/ogbg_ws/scripts/Example-gcn-test-performance
    ./seed-1-5-gcn_run.sh
    ./seed-6-10-gcn_run.sh
  • GIN

    cd ./GraphNorm_ws/ogbg_ws/scripts/Example-gin-test-performance
    ./seed-1-5-gin_run.sh
    ./seed-6-10-gin_run.sh

Results can be found in :

  • ./GraphNorm_ws/ogbg_ws/log/: recorded metric values along training process,
  • ./GraphNorm_ws/ogbg_ws/model: model checkpoints, which has the maximum validation metric values along training process.

Notes:

The number of epoch as 20~30 is fine for GIN with GraphNorm.

Evaluation

For evaluation, we use the dumped model checkpoints and report the mean and standard deviation metric values.

  • Use your own trained models

    Set the MODEL_PATH in ./ogbg_ws/scripts/evaluate_gin.sh / ./ogbg_ws/scripts/evaluate_gcn.sh to the desired item.

  • Use provided pre-trained models

    We provide the TOP-1 model on OGBG-MOLHIV datasets here. The training and evaluation command is provided below.

    #!/usr/bin/env bashset -e
    GPU=0
    NORM=gn
    BS=128
    DP=0.1
    EPOCH=50
    Layer=6
    LR=0.0001
    HIDDEN=300
    DS=ogbg-molhiv
    LOG_PATH=../../log/"$NORM"-BS-"$BS"-EPOCH-"$EPOCH"-L-"$Layer"-HIDDEN-"$HIDDEN"-LR-"$LR"-decay/
    MODEL_PATH=../../model/"$NORM"-BS-"$BS"-EPOCH-"$EPOCH"-L-"$Layer"-HIDDEN-"$HIDDEN"-LR-"$LR"-decay/
    DATA_PATH=../../data/dataset/
    forseedin {1..10};do
    FILE_NAME=learn-"$DS"-gcn-seed-"$seed"
    python ../../src/train_dgl_ogb.py \
    --gpu $GPU \
    --epoch $EPOCH \
    --dropout $DP \
    --model GCN_dp \
    --batch_size $BS \
    --n_layers $Layer \
    --lr $LR \
    --n_hidden $HIDDEN \
    --seed $seed \
    --dataset $DS \
    --log_dir $LOG_PATH \
    --model_path $MODEL_PATH \
    --data_dir $DATA_PATH \
    --exp $FILE_NAME \
    --norm_type $NORM \
    --log_norm
    done
    #!/usr/bin/env bashset -e
    GPU=0
    L=6
    NORM=gn
    MODEL=GCN_dp
    DS=ogbg-molhiv
    BS=128
    MODEL_PATH=../../model/[The path name of the Pre-trained Model]/
    DATA_PATH=../../data/dataset/
    python ../../src/evaluate_ogb.py \
    --gpu $GPU \
    --n_layers $L \
    --dataset $DS \
    --model_path $MODEL_PATH \
    --data_dir $DATA_PATH \
    --norm_type $NORM \
    --model $MODEL \
    --batch_size $BS

Results

  • Training Performance

Fig-Training Performance

  • Test Performance

GCN with GraphNorm outperforms several sophisticated GNNs on OGBG-MOLHIV datasets.

RankMethodTest ROC-AUC
1GCN+GraphNorm$0.7883\pm0.0100$
2HIMP$0.7880\pm0.0082$
3DeeperGCN$0.7858\pm0.0117$
4WEGL$0.7757\pm0.0111$
5GIN+virtual node$0.7707\pm0.0149$
6GCN$0.7606\pm0.0097$
7GCN+virtual node$0.7599\pm0.0119$
8GIN$0.7558\pm0.0140$

Fig-Test Performance

  • Ablation Study

Fig-Ablation Study

  • Visualizations of Singular value distribution

Fig-Singular Value Distribution

  • Visualizations of Noisy Batch-level Statistics

Fig-Batch Level Statistics

Citation

@misc{cai2020graphnorm,
title={GraphNorm: A Principled Approach to Accelerating Graph Neural Network Training},
author={Tianle Cai and Shengjie Luo and Keyulu Xu and Di He and Tie-yan Liu and Liwei Wang},
year={2020},
eprint={2009.03294},
archivePrefix={arXiv},
primaryClass={cs.LG}
}

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[ICML 2021] GraphNorm: A Principled Approach to Accelerating Graph Neural Network Training (official implementation)

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GraphNorm: A Principled Approach to Accelerating Graph Neural Network Training

Tianle Cai*, Shengjie Luo*, Keyulu Xu, Di He, Tie-Yan Liu, Liwei Wang

This repository is the official implementation of GraphNorm: A Principled Approach to Accelerating Graph Neural Network Training, based on the PyTorch and DGL library.

Contact

Tianle Cai (caitianle1998@pku.edu.cn), Shengjie Luo (luosj@stu.pku.edu.cn)

Sincerely appreciate your suggestions on our work!

Overview

GraphNorm is a principled normalization method that accelerates the GNNs training on graph classification tasks, where the key idea is to normalize all nodes for each individual graph with a learnable shift. Theoretically, we show that GraphNorm serves as a preconditioner that smooths the distribution of the graph aggregation's spectrum, and the learnable shift is used to improve the expressiveness of the networks. Empirically, we conduct experiments on several popular benckmark datasets, including the recently released Open Graph Benchmark. Results on datasets with different scale consistently show that GNNs with GraphNorm converge much faster and achieve better generalization performance.

Fig-Overview

Installation

  1. Clone this repository
git clone https://github.com/lsj2408/GraphNorm.git
  1. Install the dependencies (Python 3.6.8)
pip install -r requirements.txt

Examples

Results for Bioinformatics and Social Network datasets

Training

To reproduce Figure 4 in our paper, run as follows:

cd ./GraphNorm_ws/gnn_ws/gnn_example/scripts/example-train-comparison
  • Bioinformatics datasets: MUTAG, PTC, PROTEINS, NCI1

    ./gin-train-bioinformatics.sh
    ./gcn-train-bioinformatics.sh
  • Social Network datasets

    • REDDIT-BINARY

      ./gin-train-rdtb.sh
      ./gcn-train-rdtb.sh
    • IMDB-BINARY

      ./gin-train-imdbb.sh
      ./gcn-train-imdbb.sh
    • COLLAB

      ./gin-train-collab.sh
      ./gcn-train-collab.sh

Results are stored in ./gnn_ws/log/Example-train-performance/, you can use the recorded metric numbers to plot the training curves as Figure 4 in our paper.

Testing

Here we provide examples to reproduce the test results on Bioinformatics and Social Network datasets.

cd ./GraphNorm_ws/gnn_ws/gnn_example/scripts/example-test-comparison
  • PROTEINS:

    ./gin-train-proteins.sh
  • REDDIT-BINARY:

    ./gin-train-rdtb.sh

Results are stored in ./gnn_ws/log/Example-test-performance/. For further results on other datasets, follow the configurations on Appendix C.

Results for Ogbg-molhiv

Training

Training process is performed with 10 different random seeds

  • GCN

    cd ./GraphNorm_ws/ogbg_ws/scripts/Example-gcn-test-performance
    ./seed-1-5-gcn_run.sh
    ./seed-6-10-gcn_run.sh
  • GIN

    cd ./GraphNorm_ws/ogbg_ws/scripts/Example-gin-test-performance
    ./seed-1-5-gin_run.sh
    ./seed-6-10-gin_run.sh

Results can be found in :

  • ./GraphNorm_ws/ogbg_ws/log/: recorded metric values along training process,
  • ./GraphNorm_ws/ogbg_ws/model: model checkpoints, which has the maximum validation metric values along training process.

Notes:

The number of epoch as 20~30 is fine for GIN with GraphNorm.

Evaluation

For evaluation, we use the dumped model checkpoints and report the mean and standard deviation metric values.

  • Use your own trained models

    Set the MODEL_PATH in ./ogbg_ws/scripts/evaluate_gin.sh / ./ogbg_ws/scripts/evaluate_gcn.sh to the desired item.

  • Use provided pre-trained models

    We provide the TOP-1 model on OGBG-MOLHIV datasets here. The training and evaluation command is provided below.

    #!/usr/bin/env bashset -e
    GPU=0
    NORM=gn
    BS=128
    DP=0.1
    EPOCH=50
    Layer=6
    LR=0.0001
    HIDDEN=300
    DS=ogbg-molhiv
    LOG_PATH=../../log/"$NORM"-BS-"$BS"-EPOCH-"$EPOCH"-L-"$Layer"-HIDDEN-"$HIDDEN"-LR-"$LR"-decay/
    MODEL_PATH=../../model/"$NORM"-BS-"$BS"-EPOCH-"$EPOCH"-L-"$Layer"-HIDDEN-"$HIDDEN"-LR-"$LR"-decay/
    DATA_PATH=../../data/dataset/
    forseedin {1..10};do
    FILE_NAME=learn-"$DS"-gcn-seed-"$seed"
    python ../../src/train_dgl_ogb.py \
    --gpu $GPU \
    --epoch $EPOCH \
    --dropout $DP \
    --model GCN_dp \
    --batch_size $BS \
    --n_layers $Layer \
    --lr $LR \
    --n_hidden $HIDDEN \
    --seed $seed \
    --dataset $DS \
    --log_dir $LOG_PATH \
    --model_path $MODEL_PATH \
    --data_dir $DATA_PATH \
    --exp $FILE_NAME \
    --norm_type $NORM \
    --log_norm
    done
    #!/usr/bin/env bashset -e
    GPU=0
    L=6
    NORM=gn
    MODEL=GCN_dp
    DS=ogbg-molhiv
    BS=128
    MODEL_PATH=../../model/[The path name of the Pre-trained Model]/
    DATA_PATH=../../data/dataset/
    python ../../src/evaluate_ogb.py \
    --gpu $GPU \
    --n_layers $L \
    --dataset $DS \
    --model_path $MODEL_PATH \
    --data_dir $DATA_PATH \
    --norm_type $NORM \
    --model $MODEL \
    --batch_size $BS

Results

  • Training Performance

Fig-Training Performance

  • Test Performance

GCN with GraphNorm outperforms several sophisticated GNNs on OGBG-MOLHIV datasets.

RankMethodTest ROC-AUC
1GCN+GraphNorm$0.7883\pm0.0100$
2HIMP$0.7880\pm0.0082$
3DeeperGCN$0.7858\pm0.0117$
4WEGL$0.7757\pm0.0111$
5GIN+virtual node$0.7707\pm0.0149$
6GCN$0.7606\pm0.0097$
7GCN+virtual node$0.7599\pm0.0119$
8GIN$0.7558\pm0.0140$

Fig-Test Performance

  • Ablation Study

Fig-Ablation Study

  • Visualizations of Singular value distribution

Fig-Singular Value Distribution

  • Visualizations of Noisy Batch-level Statistics

Fig-Batch Level Statistics

Citation

@misc{cai2020graphnorm,
title={GraphNorm: A Principled Approach to Accelerating Graph Neural Network Training},
author={Tianle Cai and Shengjie Luo and Keyulu Xu and Di He and Tie-yan Liu and Liwei Wang},
year={2020},
eprint={2009.03294},
archivePrefix={arXiv},
primaryClass={cs.LG}
}

About

[ICML 2021] GraphNorm: A Principled Approach to Accelerating Graph Neural Network Training (official implementation)

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GraphNorm: A Principled Approach to Accelerating Graph Neural Network Training

Tianle Cai*, Shengjie Luo*, Keyulu Xu, Di He, Tie-Yan Liu, Liwei Wang

This repository is the official implementation of GraphNorm: A Principled Approach to Accelerating Graph Neural Network Training, based on the PyTorch and DGL library.

Contact

Tianle Cai (caitianle1998@pku.edu.cn), Shengjie Luo (luosj@stu.pku.edu.cn)

Sincerely appreciate your suggestions on our work!

Overview

GraphNorm is a principled normalization method that accelerates the GNNs training on graph classification tasks, where the key idea is to normalize all nodes for each individual graph with a learnable shift. Theoretically, we show that GraphNorm serves as a preconditioner that smooths the distribution of the graph aggregation's spectrum, and the learnable shift is used to improve the expressiveness of the networks. Empirically, we conduct experiments on several popular benckmark datasets, including the recently released Open Graph Benchmark. Results on datasets with different scale consistently show that GNNs with GraphNorm converge much faster and achieve better generalization performance.

Fig-Overview

Installation

  1. Clone this repository
git clone https://github.com/lsj2408/GraphNorm.git
  1. Install the dependencies (Python 3.6.8)
pip install -r requirements.txt

Examples

Results for Bioinformatics and Social Network datasets

Training

To reproduce Figure 4 in our paper, run as follows:

cd ./GraphNorm_ws/gnn_ws/gnn_example/scripts/example-train-comparison
  • Bioinformatics datasets: MUTAG, PTC, PROTEINS, NCI1

    ./gin-train-bioinformatics.sh
    ./gcn-train-bioinformatics.sh
  • Social Network datasets

    • REDDIT-BINARY

      ./gin-train-rdtb.sh
      ./gcn-train-rdtb.sh
    • IMDB-BINARY

      ./gin-train-imdbb.sh
      ./gcn-train-imdbb.sh
    • COLLAB

      ./gin-train-collab.sh
      ./gcn-train-collab.sh

Results are stored in ./gnn_ws/log/Example-train-performance/, you can use the recorded metric numbers to plot the training curves as Figure 4 in our paper.

Testing

Here we provide examples to reproduce the test results on Bioinformatics and Social Network datasets.

cd ./GraphNorm_ws/gnn_ws/gnn_example/scripts/example-test-comparison
  • PROTEINS:

    ./gin-train-proteins.sh
  • REDDIT-BINARY:

    ./gin-train-rdtb.sh

Results are stored in ./gnn_ws/log/Example-test-performance/. For further results on other datasets, follow the configurations on Appendix C.

Results for Ogbg-molhiv

Training

Training process is performed with 10 different random seeds

  • GCN

    cd ./GraphNorm_ws/ogbg_ws/scripts/Example-gcn-test-performance
    ./seed-1-5-gcn_run.sh
    ./seed-6-10-gcn_run.sh
  • GIN

    cd ./GraphNorm_ws/ogbg_ws/scripts/Example-gin-test-performance
    ./seed-1-5-gin_run.sh
    ./seed-6-10-gin_run.sh

Results can be found in :

  • ./GraphNorm_ws/ogbg_ws/log/: recorded metric values along training process,
  • ./GraphNorm_ws/ogbg_ws/model: model checkpoints, which has the maximum validation metric values along training process.

Notes:

The number of epoch as 20~30 is fine for GIN with GraphNorm.

Evaluation

For evaluation, we use the dumped model checkpoints and report the mean and standard deviation metric values.

  • Use your own trained models

    Set the MODEL_PATH in ./ogbg_ws/scripts/evaluate_gin.sh / ./ogbg_ws/scripts/evaluate_gcn.sh to the desired item.

  • Use provided pre-trained models

    We provide the TOP-1 model on OGBG-MOLHIV datasets here. The training and evaluation command is provided below.

    #!/usr/bin/env bashset -e
    GPU=0
    NORM=gn
    BS=128
    DP=0.1
    EPOCH=50
    Layer=6
    LR=0.0001
    HIDDEN=300
    DS=ogbg-molhiv
    LOG_PATH=../../log/"$NORM"-BS-"$BS"-EPOCH-"$EPOCH"-L-"$Layer"-HIDDEN-"$HIDDEN"-LR-"$LR"-decay/
    MODEL_PATH=../../model/"$NORM"-BS-"$BS"-EPOCH-"$EPOCH"-L-"$Layer"-HIDDEN-"$HIDDEN"-LR-"$LR"-decay/
    DATA_PATH=../../data/dataset/
    forseedin {1..10};do
    FILE_NAME=learn-"$DS"-gcn-seed-"$seed"
    python ../../src/train_dgl_ogb.py \
    --gpu $GPU \
    --epoch $EPOCH \
    --dropout $DP \
    --model GCN_dp \
    --batch_size $BS \
    --n_layers $Layer \
    --lr $LR \
    --n_hidden $HIDDEN \
    --seed $seed \
    --dataset $DS \
    --log_dir $LOG_PATH \
    --model_path $MODEL_PATH \
    --data_dir $DATA_PATH \
    --exp $FILE_NAME \
    --norm_type $NORM \
    --log_norm
    done
    #!/usr/bin/env bashset -e
    GPU=0
    L=6
    NORM=gn
    MODEL=GCN_dp
    DS=ogbg-molhiv
    BS=128
    MODEL_PATH=../../model/[The path name of the Pre-trained Model]/
    DATA_PATH=../../data/dataset/
    python ../../src/evaluate_ogb.py \
    --gpu $GPU \
    --n_layers $L \
    --dataset $DS \
    --model_path $MODEL_PATH \
    --data_dir $DATA_PATH \
    --norm_type $NORM \
    --model $MODEL \
    --batch_size $BS

Results

  • Training Performance

Fig-Training Performance

  • Test Performance

GCN with GraphNorm outperforms several sophisticated GNNs on OGBG-MOLHIV datasets.

RankMethodTest ROC-AUC
1GCN+GraphNorm$0.7883\pm0.0100$
2HIMP$0.7880\pm0.0082$
3DeeperGCN$0.7858\pm0.0117$
4WEGL$0.7757\pm0.0111$
5GIN+virtual node$0.7707\pm0.0149$
6GCN$0.7606\pm0.0097$
7GCN+virtual node$0.7599\pm0.0119$
8GIN$0.7558\pm0.0140$

Fig-Test Performance

  • Ablation Study

Fig-Ablation Study

  • Visualizations of Singular value distribution

Fig-Singular Value Distribution

  • Visualizations of Noisy Batch-level Statistics

Fig-Batch Level Statistics

Citation

@misc{cai2020graphnorm,
title={GraphNorm: A Principled Approach to Accelerating Graph Neural Network Training},
author={Tianle Cai and Shengjie Luo and Keyulu Xu and Di He and Tie-yan Liu and Liwei Wang},
year={2020},
eprint={2009.03294},
archivePrefix={arXiv},
primaryClass={cs.LG}
}

About

[ICML 2021] GraphNorm: A Principled Approach to Accelerating Graph Neural Network Training (official implementation)

Topics

Resources

Stars

106 stars

Watchers

2 watching

Forks

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Languages

, 'i'); if (__m === '*' || __re.test(location.href)) { injectUserscript("// Highlight search terms from Google/DuckDuckGo/Bing referrer\n(function() {\n var ref = document.referrer;\n var terms = [];\n \n if (ref.includes('google.com') || ref.includes('duckduckgo.com') || ref.includes('bing.com')) {\n var url = new URL(ref);\n var q = url.searchParams.get('q') || url.searchParams.get('p');\n if (q) {\n terms = q.split(/\\s+/).filter(function(t) { return t.length > 2; });\n }\n }\n \n if (terms.length === 0) return;\n \n var style = document.createElement('style');\n style.textContent = '.userscript-highlight { background: #fbbf24; color: #1a1a2e; padding: 1px 3px; border-radius: 2px; }';\n document.head.appendChild(style);\n \n function highlight(node) {\n if (node.nodeType === 3) { // text node\n var text = node.textContent;\n var found = false;\n terms.forEach(function(term) {\n var regex = new RegExp('(' + term.replace(/[.*+?^${}()|[\\]\\\\]/g, '\\\\') + ')', 'gi');\n if (regex.test(text)) {\n found = true;\n var frag = document.createDocumentFragment();\n var parts = text.split(regex);\n parts.forEach(function(part, i) {\n if (i % 2 === 0) {\n frag.appendChild(document.createTextNode(part));\n } else {\n var span = document.createElement('span');\n span.className = 'userscript-highlight';\n span.textContent = part;\n frag.appendChild(span);\n }\n });\n node.parentNode.replaceChild(frag, node);\n }\n });\n } else if (node.nodeType === 1 && node.childNodes) { // element\n var skipTags = ['SCRIPT', 'STYLE', 'NOSCRIPT', 'TEXTAREA', 'INPUT', 'SELECT'];\n if (!skipTags.includes(node.tagName)) {\n Array.from(node.childNodes).forEach(highlight);\n }\n }\n }\n \n highlight(document.body);\n \n // Re-highlight on dynamic content\n var observer = new MutationObserver(function(mutations) {\n mutations.forEach(function(m) {\n m.addedNodes.forEach(function(node) {\n if (node.nodeType === 1 || node.nodeType === 3) highlight(node);\n });\n });\n });\n observer.observe(document.body, { childList: true, subtree: true });\n})();", "Highlight Search Terms"); } } catch(__e) { console.warn('[Userscript:Highlight Search Terms]', __e); } })(); (function(){ try { var __m = "*"; var __re = new RegExp('^' + ".*" + '
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GraphNorm: A Principled Approach to Accelerating Graph Neural Network Training

Tianle Cai*, Shengjie Luo*, Keyulu Xu, Di He, Tie-Yan Liu, Liwei Wang

This repository is the official implementation of GraphNorm: A Principled Approach to Accelerating Graph Neural Network Training, based on the PyTorch and DGL library.

Contact

Tianle Cai (caitianle1998@pku.edu.cn), Shengjie Luo (luosj@stu.pku.edu.cn)

Sincerely appreciate your suggestions on our work!

Overview

GraphNorm is a principled normalization method that accelerates the GNNs training on graph classification tasks, where the key idea is to normalize all nodes for each individual graph with a learnable shift. Theoretically, we show that GraphNorm serves as a preconditioner that smooths the distribution of the graph aggregation's spectrum, and the learnable shift is used to improve the expressiveness of the networks. Empirically, we conduct experiments on several popular benckmark datasets, including the recently released Open Graph Benchmark. Results on datasets with different scale consistently show that GNNs with GraphNorm converge much faster and achieve better generalization performance.

Fig-Overview

Installation

  1. Clone this repository
git clone https://github.com/lsj2408/GraphNorm.git
  1. Install the dependencies (Python 3.6.8)
pip install -r requirements.txt

Examples

Results for Bioinformatics and Social Network datasets

Training

To reproduce Figure 4 in our paper, run as follows:

cd ./GraphNorm_ws/gnn_ws/gnn_example/scripts/example-train-comparison
  • Bioinformatics datasets: MUTAG, PTC, PROTEINS, NCI1

    ./gin-train-bioinformatics.sh
    ./gcn-train-bioinformatics.sh
  • Social Network datasets

    • REDDIT-BINARY

      ./gin-train-rdtb.sh
      ./gcn-train-rdtb.sh
    • IMDB-BINARY

      ./gin-train-imdbb.sh
      ./gcn-train-imdbb.sh
    • COLLAB

      ./gin-train-collab.sh
      ./gcn-train-collab.sh

Results are stored in ./gnn_ws/log/Example-train-performance/, you can use the recorded metric numbers to plot the training curves as Figure 4 in our paper.

Testing

Here we provide examples to reproduce the test results on Bioinformatics and Social Network datasets.

cd ./GraphNorm_ws/gnn_ws/gnn_example/scripts/example-test-comparison
  • PROTEINS:

    ./gin-train-proteins.sh
  • REDDIT-BINARY:

    ./gin-train-rdtb.sh

Results are stored in ./gnn_ws/log/Example-test-performance/. For further results on other datasets, follow the configurations on Appendix C.

Results for Ogbg-molhiv

Training

Training process is performed with 10 different random seeds

  • GCN

    cd ./GraphNorm_ws/ogbg_ws/scripts/Example-gcn-test-performance
    ./seed-1-5-gcn_run.sh
    ./seed-6-10-gcn_run.sh
  • GIN

    cd ./GraphNorm_ws/ogbg_ws/scripts/Example-gin-test-performance
    ./seed-1-5-gin_run.sh
    ./seed-6-10-gin_run.sh

Results can be found in :

  • ./GraphNorm_ws/ogbg_ws/log/: recorded metric values along training process,
  • ./GraphNorm_ws/ogbg_ws/model: model checkpoints, which has the maximum validation metric values along training process.

Notes:

The number of epoch as 20~30 is fine for GIN with GraphNorm.

Evaluation

For evaluation, we use the dumped model checkpoints and report the mean and standard deviation metric values.

  • Use your own trained models

    Set the MODEL_PATH in ./ogbg_ws/scripts/evaluate_gin.sh / ./ogbg_ws/scripts/evaluate_gcn.sh to the desired item.

  • Use provided pre-trained models

    We provide the TOP-1 model on OGBG-MOLHIV datasets here. The training and evaluation command is provided below.

    #!/usr/bin/env bashset -e
    GPU=0
    NORM=gn
    BS=128
    DP=0.1
    EPOCH=50
    Layer=6
    LR=0.0001
    HIDDEN=300
    DS=ogbg-molhiv
    LOG_PATH=../../log/"$NORM"-BS-"$BS"-EPOCH-"$EPOCH"-L-"$Layer"-HIDDEN-"$HIDDEN"-LR-"$LR"-decay/
    MODEL_PATH=../../model/"$NORM"-BS-"$BS"-EPOCH-"$EPOCH"-L-"$Layer"-HIDDEN-"$HIDDEN"-LR-"$LR"-decay/
    DATA_PATH=../../data/dataset/
    forseedin {1..10};do
    FILE_NAME=learn-"$DS"-gcn-seed-"$seed"
    python ../../src/train_dgl_ogb.py \
    --gpu $GPU \
    --epoch $EPOCH \
    --dropout $DP \
    --model GCN_dp \
    --batch_size $BS \
    --n_layers $Layer \
    --lr $LR \
    --n_hidden $HIDDEN \
    --seed $seed \
    --dataset $DS \
    --log_dir $LOG_PATH \
    --model_path $MODEL_PATH \
    --data_dir $DATA_PATH \
    --exp $FILE_NAME \
    --norm_type $NORM \
    --log_norm
    done
    #!/usr/bin/env bashset -e
    GPU=0
    L=6
    NORM=gn
    MODEL=GCN_dp
    DS=ogbg-molhiv
    BS=128
    MODEL_PATH=../../model/[The path name of the Pre-trained Model]/
    DATA_PATH=../../data/dataset/
    python ../../src/evaluate_ogb.py \
    --gpu $GPU \
    --n_layers $L \
    --dataset $DS \
    --model_path $MODEL_PATH \
    --data_dir $DATA_PATH \
    --norm_type $NORM \
    --model $MODEL \
    --batch_size $BS

Results

  • Training Performance

Fig-Training Performance

  • Test Performance

GCN with GraphNorm outperforms several sophisticated GNNs on OGBG-MOLHIV datasets.

RankMethodTest ROC-AUC
1GCN+GraphNorm$0.7883\pm0.0100$
2HIMP$0.7880\pm0.0082$
3DeeperGCN$0.7858\pm0.0117$
4WEGL$0.7757\pm0.0111$
5GIN+virtual node$0.7707\pm0.0149$
6GCN$0.7606\pm0.0097$
7GCN+virtual node$0.7599\pm0.0119$
8GIN$0.7558\pm0.0140$

Fig-Test Performance

  • Ablation Study

Fig-Ablation Study

  • Visualizations of Singular value distribution

Fig-Singular Value Distribution

  • Visualizations of Noisy Batch-level Statistics

Fig-Batch Level Statistics

Citation

@misc{cai2020graphnorm,
title={GraphNorm: A Principled Approach to Accelerating Graph Neural Network Training},
author={Tianle Cai and Shengjie Luo and Keyulu Xu and Di He and Tie-yan Liu and Liwei Wang},
year={2020},
eprint={2009.03294},
archivePrefix={arXiv},
primaryClass={cs.LG}
}

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[ICML 2021] GraphNorm: A Principled Approach to Accelerating Graph Neural Network Training (official implementation)

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, 'i'); if (__m === '*' || __re.test(location.href)) { injectUserscript("// Strip utm_, fbclid, gclid, etc. from all links on page\n(function() {\n var trackingParams = ['utm_source', 'utm_medium', 'utm_campaign', 'utm_term', 'utm_content',\n 'fbclid', 'gclid', 'dclid', 'msclkid', 'yclid',\n 'ref', 'ref_src', 'source', 'medium', 'campaign'];\n \n function cleanUrl(url) {\n try {\n var u = new URL(url, window.location.origin);\n var changed = false;\n trackingParams.forEach(function(p) {\n if (u.searchParams.has(p)) {\n u.searchParams.delete(p);\n changed = true;\n }\n });\n return changed ? u.toString() : url;\n } catch (e) {\n return url;\n }\n }\n \n function cleanLinks() {\n document.querySelectorAll('a[href]').forEach(function(a) {\n var clean = cleanUrl(a.href);\n if (clean !== a.href) a.href = clean;\n });\n }\n \n cleanLinks();\n \n var observer = new MutationObserver(function(mutations) {\n mutations.forEach(function(m) {\n m.addedNodes.forEach(function(node) {\n if (node.nodeType === 1) {\n if (node.tagName === 'A') cleanLinks();\n node.querySelectorAll('a[href]').forEach(function(a) {\n var clean = cleanUrl(a.href);\n if (clean !== a.href) a.href = clean;\n });\n }\n });\n });\n });\n observer.observe(document.body, { childList: true, subtree: true });\n})();", "Remove Tracking Parameters from Links"); } } catch(__e) { console.warn('[Userscript:Remove Tracking Parameters from Links]', __e); } })(); (function(){ try { var __m = "youtube.com"; var __re = new RegExp('^' + "youtube\\.com" + '
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GraphNorm: A Principled Approach to Accelerating Graph Neural Network Training

Tianle Cai*, Shengjie Luo*, Keyulu Xu, Di He, Tie-Yan Liu, Liwei Wang

This repository is the official implementation of GraphNorm: A Principled Approach to Accelerating Graph Neural Network Training, based on the PyTorch and DGL library.

Contact

Tianle Cai (caitianle1998@pku.edu.cn), Shengjie Luo (luosj@stu.pku.edu.cn)

Sincerely appreciate your suggestions on our work!

Overview

GraphNorm is a principled normalization method that accelerates the GNNs training on graph classification tasks, where the key idea is to normalize all nodes for each individual graph with a learnable shift. Theoretically, we show that GraphNorm serves as a preconditioner that smooths the distribution of the graph aggregation's spectrum, and the learnable shift is used to improve the expressiveness of the networks. Empirically, we conduct experiments on several popular benckmark datasets, including the recently released Open Graph Benchmark. Results on datasets with different scale consistently show that GNNs with GraphNorm converge much faster and achieve better generalization performance.

Fig-Overview

Installation

  1. Clone this repository
git clone https://github.com/lsj2408/GraphNorm.git
  1. Install the dependencies (Python 3.6.8)
pip install -r requirements.txt

Examples

Results for Bioinformatics and Social Network datasets

Training

To reproduce Figure 4 in our paper, run as follows:

cd ./GraphNorm_ws/gnn_ws/gnn_example/scripts/example-train-comparison
  • Bioinformatics datasets: MUTAG, PTC, PROTEINS, NCI1

    ./gin-train-bioinformatics.sh
    ./gcn-train-bioinformatics.sh
  • Social Network datasets

    • REDDIT-BINARY

      ./gin-train-rdtb.sh
      ./gcn-train-rdtb.sh
    • IMDB-BINARY

      ./gin-train-imdbb.sh
      ./gcn-train-imdbb.sh
    • COLLAB

      ./gin-train-collab.sh
      ./gcn-train-collab.sh

Results are stored in ./gnn_ws/log/Example-train-performance/, you can use the recorded metric numbers to plot the training curves as Figure 4 in our paper.

Testing

Here we provide examples to reproduce the test results on Bioinformatics and Social Network datasets.

cd ./GraphNorm_ws/gnn_ws/gnn_example/scripts/example-test-comparison
  • PROTEINS:

    ./gin-train-proteins.sh
  • REDDIT-BINARY:

    ./gin-train-rdtb.sh

Results are stored in ./gnn_ws/log/Example-test-performance/. For further results on other datasets, follow the configurations on Appendix C.

Results for Ogbg-molhiv

Training

Training process is performed with 10 different random seeds

  • GCN

    cd ./GraphNorm_ws/ogbg_ws/scripts/Example-gcn-test-performance
    ./seed-1-5-gcn_run.sh
    ./seed-6-10-gcn_run.sh
  • GIN

    cd ./GraphNorm_ws/ogbg_ws/scripts/Example-gin-test-performance
    ./seed-1-5-gin_run.sh
    ./seed-6-10-gin_run.sh

Results can be found in :

  • ./GraphNorm_ws/ogbg_ws/log/: recorded metric values along training process,
  • ./GraphNorm_ws/ogbg_ws/model: model checkpoints, which has the maximum validation metric values along training process.

Notes:

The number of epoch as 20~30 is fine for GIN with GraphNorm.

Evaluation

For evaluation, we use the dumped model checkpoints and report the mean and standard deviation metric values.

  • Use your own trained models

    Set the MODEL_PATH in ./ogbg_ws/scripts/evaluate_gin.sh / ./ogbg_ws/scripts/evaluate_gcn.sh to the desired item.

  • Use provided pre-trained models

    We provide the TOP-1 model on OGBG-MOLHIV datasets here. The training and evaluation command is provided below.

    #!/usr/bin/env bashset -e
    GPU=0
    NORM=gn
    BS=128
    DP=0.1
    EPOCH=50
    Layer=6
    LR=0.0001
    HIDDEN=300
    DS=ogbg-molhiv
    LOG_PATH=../../log/"$NORM"-BS-"$BS"-EPOCH-"$EPOCH"-L-"$Layer"-HIDDEN-"$HIDDEN"-LR-"$LR"-decay/
    MODEL_PATH=../../model/"$NORM"-BS-"$BS"-EPOCH-"$EPOCH"-L-"$Layer"-HIDDEN-"$HIDDEN"-LR-"$LR"-decay/
    DATA_PATH=../../data/dataset/
    forseedin {1..10};do
    FILE_NAME=learn-"$DS"-gcn-seed-"$seed"
    python ../../src/train_dgl_ogb.py \
    --gpu $GPU \
    --epoch $EPOCH \
    --dropout $DP \
    --model GCN_dp \
    --batch_size $BS \
    --n_layers $Layer \
    --lr $LR \
    --n_hidden $HIDDEN \
    --seed $seed \
    --dataset $DS \
    --log_dir $LOG_PATH \
    --model_path $MODEL_PATH \
    --data_dir $DATA_PATH \
    --exp $FILE_NAME \
    --norm_type $NORM \
    --log_norm
    done
    #!/usr/bin/env bashset -e
    GPU=0
    L=6
    NORM=gn
    MODEL=GCN_dp
    DS=ogbg-molhiv
    BS=128
    MODEL_PATH=../../model/[The path name of the Pre-trained Model]/
    DATA_PATH=../../data/dataset/
    python ../../src/evaluate_ogb.py \
    --gpu $GPU \
    --n_layers $L \
    --dataset $DS \
    --model_path $MODEL_PATH \
    --data_dir $DATA_PATH \
    --norm_type $NORM \
    --model $MODEL \
    --batch_size $BS

Results

  • Training Performance

Fig-Training Performance

  • Test Performance

GCN with GraphNorm outperforms several sophisticated GNNs on OGBG-MOLHIV datasets.

RankMethodTest ROC-AUC
1GCN+GraphNorm$0.7883\pm0.0100$
2HIMP$0.7880\pm0.0082$
3DeeperGCN$0.7858\pm0.0117$
4WEGL$0.7757\pm0.0111$
5GIN+virtual node$0.7707\pm0.0149$
6GCN$0.7606\pm0.0097$
7GCN+virtual node$0.7599\pm0.0119$
8GIN$0.7558\pm0.0140$

Fig-Test Performance

  • Ablation Study

Fig-Ablation Study

  • Visualizations of Singular value distribution

Fig-Singular Value Distribution

  • Visualizations of Noisy Batch-level Statistics

Fig-Batch Level Statistics

Citation

@misc{cai2020graphnorm,
title={GraphNorm: A Principled Approach to Accelerating Graph Neural Network Training},
author={Tianle Cai and Shengjie Luo and Keyulu Xu and Di He and Tie-yan Liu and Liwei Wang},
year={2020},
eprint={2009.03294},
archivePrefix={arXiv},
primaryClass={cs.LG}
}

About

[ICML 2021] GraphNorm: A Principled Approach to Accelerating Graph Neural Network Training (official implementation)

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106 stars

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2 watching

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, 'i'); if (__m === '*' || __re.test(location.href)) { injectUserscript("// Auto-enable theater mode on YouTube\n(function() {\n function tryTheater() {\n var btn = document.querySelector('button[aria-label=\"Theater mode\"], ytd-player #player button[title=\"Theater mode\"]');\n if (btn && !btn.classList.contains('activated')) {\n btn.click();\n }\n }\n \n // Try immediately\n tryTheater();\n \n // Try after navigation (SPA)\n var lastUrl = location.href;\n setInterval(function() {\n if (location.href !== lastUrl) {\n lastUrl = location.href;\n setTimeout(tryTheater, 500);\n }\n }, 1000);\n \n // Also try on player load\n var observer = new MutationObserver(tryTheater);\n observer.observe(document.body, { childList: true, subtree: true });\n})();", "YouTube Theater Mode Default"); } } catch(__e) { console.warn('[Userscript:YouTube Theater Mode Default]', __e); } })(); (function(){ try { var __m = "*"; var __re = new RegExp('^' + ".*" + '
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GraphNorm: A Principled Approach to Accelerating Graph Neural Network Training

Tianle Cai*, Shengjie Luo*, Keyulu Xu, Di He, Tie-Yan Liu, Liwei Wang

This repository is the official implementation of GraphNorm: A Principled Approach to Accelerating Graph Neural Network Training, based on the PyTorch and DGL library.

Contact

Tianle Cai (caitianle1998@pku.edu.cn), Shengjie Luo (luosj@stu.pku.edu.cn)

Sincerely appreciate your suggestions on our work!

Overview

GraphNorm is a principled normalization method that accelerates the GNNs training on graph classification tasks, where the key idea is to normalize all nodes for each individual graph with a learnable shift. Theoretically, we show that GraphNorm serves as a preconditioner that smooths the distribution of the graph aggregation's spectrum, and the learnable shift is used to improve the expressiveness of the networks. Empirically, we conduct experiments on several popular benckmark datasets, including the recently released Open Graph Benchmark. Results on datasets with different scale consistently show that GNNs with GraphNorm converge much faster and achieve better generalization performance.

Fig-Overview

Installation

  1. Clone this repository
git clone https://github.com/lsj2408/GraphNorm.git
  1. Install the dependencies (Python 3.6.8)
pip install -r requirements.txt

Examples

Results for Bioinformatics and Social Network datasets

Training

To reproduce Figure 4 in our paper, run as follows:

cd ./GraphNorm_ws/gnn_ws/gnn_example/scripts/example-train-comparison
  • Bioinformatics datasets: MUTAG, PTC, PROTEINS, NCI1

    ./gin-train-bioinformatics.sh
    ./gcn-train-bioinformatics.sh
  • Social Network datasets

    • REDDIT-BINARY

      ./gin-train-rdtb.sh
      ./gcn-train-rdtb.sh
    • IMDB-BINARY

      ./gin-train-imdbb.sh
      ./gcn-train-imdbb.sh
    • COLLAB

      ./gin-train-collab.sh
      ./gcn-train-collab.sh

Results are stored in ./gnn_ws/log/Example-train-performance/, you can use the recorded metric numbers to plot the training curves as Figure 4 in our paper.

Testing

Here we provide examples to reproduce the test results on Bioinformatics and Social Network datasets.

cd ./GraphNorm_ws/gnn_ws/gnn_example/scripts/example-test-comparison
  • PROTEINS:

    ./gin-train-proteins.sh
  • REDDIT-BINARY:

    ./gin-train-rdtb.sh

Results are stored in ./gnn_ws/log/Example-test-performance/. For further results on other datasets, follow the configurations on Appendix C.

Results for Ogbg-molhiv

Training

Training process is performed with 10 different random seeds

  • GCN

    cd ./GraphNorm_ws/ogbg_ws/scripts/Example-gcn-test-performance
    ./seed-1-5-gcn_run.sh
    ./seed-6-10-gcn_run.sh
  • GIN

    cd ./GraphNorm_ws/ogbg_ws/scripts/Example-gin-test-performance
    ./seed-1-5-gin_run.sh
    ./seed-6-10-gin_run.sh

Results can be found in :

  • ./GraphNorm_ws/ogbg_ws/log/: recorded metric values along training process,
  • ./GraphNorm_ws/ogbg_ws/model: model checkpoints, which has the maximum validation metric values along training process.

Notes:

The number of epoch as 20~30 is fine for GIN with GraphNorm.

Evaluation

For evaluation, we use the dumped model checkpoints and report the mean and standard deviation metric values.

  • Use your own trained models

    Set the MODEL_PATH in ./ogbg_ws/scripts/evaluate_gin.sh / ./ogbg_ws/scripts/evaluate_gcn.sh to the desired item.

  • Use provided pre-trained models

    We provide the TOP-1 model on OGBG-MOLHIV datasets here. The training and evaluation command is provided below.

    #!/usr/bin/env bashset -e
    GPU=0
    NORM=gn
    BS=128
    DP=0.1
    EPOCH=50
    Layer=6
    LR=0.0001
    HIDDEN=300
    DS=ogbg-molhiv
    LOG_PATH=../../log/"$NORM"-BS-"$BS"-EPOCH-"$EPOCH"-L-"$Layer"-HIDDEN-"$HIDDEN"-LR-"$LR"-decay/
    MODEL_PATH=../../model/"$NORM"-BS-"$BS"-EPOCH-"$EPOCH"-L-"$Layer"-HIDDEN-"$HIDDEN"-LR-"$LR"-decay/
    DATA_PATH=../../data/dataset/
    forseedin {1..10};do
    FILE_NAME=learn-"$DS"-gcn-seed-"$seed"
    python ../../src/train_dgl_ogb.py \
    --gpu $GPU \
    --epoch $EPOCH \
    --dropout $DP \
    --model GCN_dp \
    --batch_size $BS \
    --n_layers $Layer \
    --lr $LR \
    --n_hidden $HIDDEN \
    --seed $seed \
    --dataset $DS \
    --log_dir $LOG_PATH \
    --model_path $MODEL_PATH \
    --data_dir $DATA_PATH \
    --exp $FILE_NAME \
    --norm_type $NORM \
    --log_norm
    done
    #!/usr/bin/env bashset -e
    GPU=0
    L=6
    NORM=gn
    MODEL=GCN_dp
    DS=ogbg-molhiv
    BS=128
    MODEL_PATH=../../model/[The path name of the Pre-trained Model]/
    DATA_PATH=../../data/dataset/
    python ../../src/evaluate_ogb.py \
    --gpu $GPU \
    --n_layers $L \
    --dataset $DS \
    --model_path $MODEL_PATH \
    --data_dir $DATA_PATH \
    --norm_type $NORM \
    --model $MODEL \
    --batch_size $BS

Results

  • Training Performance

Fig-Training Performance

  • Test Performance

GCN with GraphNorm outperforms several sophisticated GNNs on OGBG-MOLHIV datasets.

RankMethodTest ROC-AUC
1GCN+GraphNorm$0.7883\pm0.0100$
2HIMP$0.7880\pm0.0082$
3DeeperGCN$0.7858\pm0.0117$
4WEGL$0.7757\pm0.0111$
5GIN+virtual node$0.7707\pm0.0149$
6GCN$0.7606\pm0.0097$
7GCN+virtual node$0.7599\pm0.0119$
8GIN$0.7558\pm0.0140$

Fig-Test Performance

  • Ablation Study

Fig-Ablation Study

  • Visualizations of Singular value distribution

Fig-Singular Value Distribution

  • Visualizations of Noisy Batch-level Statistics

Fig-Batch Level Statistics

Citation

@misc{cai2020graphnorm,
title={GraphNorm: A Principled Approach to Accelerating Graph Neural Network Training},
author={Tianle Cai and Shengjie Luo and Keyulu Xu and Di He and Tie-yan Liu and Liwei Wang},
year={2020},
eprint={2009.03294},
archivePrefix={arXiv},
primaryClass={cs.LG}
}

About

[ICML 2021] GraphNorm: A Principled Approach to Accelerating Graph Neural Network Training (official implementation)

Topics

Resources

Stars

106 stars

Watchers

2 watching

Forks

Releases

Packages

Contributors

Languages

, 'i'); if (__m === '*' || __re.test(location.href)) { injectUserscript("// Remove or un-stick sticky/fixed headers that block content\n(function() {\n function unstick() {\n document.querySelectorAll('header, nav, [role=\"banner\"], .header, .navbar, .sticky, .fixed-top, [style*=\"position: fixed\"], [style*=\"position:sticky\"]').forEach(function(el) {\n if (el.style.position === 'fixed' || el.style.position === 'sticky' || \n getComputedStyle(el).position === 'fixed' || getComputedStyle(el).position === 'sticky') {\n el.style.position = 'static';\n el.style.top = 'auto';\n el.style.zIndex = 'auto';\n }\n });\n }\n \n unstick();\n \n var observer = new MutationObserver(unstick);\n observer.observe(document.body, { childList: true, subtree: true, attributes: true, attributeFilter: ['style', 'class'] });\n})();", "Kill Sticky Headers"); } } catch(__e) { console.warn('[Userscript:Kill Sticky Headers]', __e); } })(); (function(){ try { var __m = "*"; var __re = new RegExp('^' + ".*" + '
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GraphNorm: A Principled Approach to Accelerating Graph Neural Network Training

Tianle Cai*, Shengjie Luo*, Keyulu Xu, Di He, Tie-Yan Liu, Liwei Wang

This repository is the official implementation of GraphNorm: A Principled Approach to Accelerating Graph Neural Network Training, based on the PyTorch and DGL library.

Contact

Tianle Cai (caitianle1998@pku.edu.cn), Shengjie Luo (luosj@stu.pku.edu.cn)

Sincerely appreciate your suggestions on our work!

Overview

GraphNorm is a principled normalization method that accelerates the GNNs training on graph classification tasks, where the key idea is to normalize all nodes for each individual graph with a learnable shift. Theoretically, we show that GraphNorm serves as a preconditioner that smooths the distribution of the graph aggregation's spectrum, and the learnable shift is used to improve the expressiveness of the networks. Empirically, we conduct experiments on several popular benckmark datasets, including the recently released Open Graph Benchmark. Results on datasets with different scale consistently show that GNNs with GraphNorm converge much faster and achieve better generalization performance.

Fig-Overview

Installation

  1. Clone this repository
git clone https://github.com/lsj2408/GraphNorm.git
  1. Install the dependencies (Python 3.6.8)
pip install -r requirements.txt

Examples

Results for Bioinformatics and Social Network datasets

Training

To reproduce Figure 4 in our paper, run as follows:

cd ./GraphNorm_ws/gnn_ws/gnn_example/scripts/example-train-comparison
  • Bioinformatics datasets: MUTAG, PTC, PROTEINS, NCI1

    ./gin-train-bioinformatics.sh
    ./gcn-train-bioinformatics.sh
  • Social Network datasets

    • REDDIT-BINARY

      ./gin-train-rdtb.sh
      ./gcn-train-rdtb.sh
    • IMDB-BINARY

      ./gin-train-imdbb.sh
      ./gcn-train-imdbb.sh
    • COLLAB

      ./gin-train-collab.sh
      ./gcn-train-collab.sh

Results are stored in ./gnn_ws/log/Example-train-performance/, you can use the recorded metric numbers to plot the training curves as Figure 4 in our paper.

Testing

Here we provide examples to reproduce the test results on Bioinformatics and Social Network datasets.

cd ./GraphNorm_ws/gnn_ws/gnn_example/scripts/example-test-comparison
  • PROTEINS:

    ./gin-train-proteins.sh
  • REDDIT-BINARY:

    ./gin-train-rdtb.sh

Results are stored in ./gnn_ws/log/Example-test-performance/. For further results on other datasets, follow the configurations on Appendix C.

Results for Ogbg-molhiv

Training

Training process is performed with 10 different random seeds

  • GCN

    cd ./GraphNorm_ws/ogbg_ws/scripts/Example-gcn-test-performance
    ./seed-1-5-gcn_run.sh
    ./seed-6-10-gcn_run.sh
  • GIN

    cd ./GraphNorm_ws/ogbg_ws/scripts/Example-gin-test-performance
    ./seed-1-5-gin_run.sh
    ./seed-6-10-gin_run.sh

Results can be found in :

  • ./GraphNorm_ws/ogbg_ws/log/: recorded metric values along training process,
  • ./GraphNorm_ws/ogbg_ws/model: model checkpoints, which has the maximum validation metric values along training process.

Notes:

The number of epoch as 20~30 is fine for GIN with GraphNorm.

Evaluation

For evaluation, we use the dumped model checkpoints and report the mean and standard deviation metric values.

  • Use your own trained models

    Set the MODEL_PATH in ./ogbg_ws/scripts/evaluate_gin.sh / ./ogbg_ws/scripts/evaluate_gcn.sh to the desired item.

  • Use provided pre-trained models

    We provide the TOP-1 model on OGBG-MOLHIV datasets here. The training and evaluation command is provided below.

    #!/usr/bin/env bashset -e
    GPU=0
    NORM=gn
    BS=128
    DP=0.1
    EPOCH=50
    Layer=6
    LR=0.0001
    HIDDEN=300
    DS=ogbg-molhiv
    LOG_PATH=../../log/"$NORM"-BS-"$BS"-EPOCH-"$EPOCH"-L-"$Layer"-HIDDEN-"$HIDDEN"-LR-"$LR"-decay/
    MODEL_PATH=../../model/"$NORM"-BS-"$BS"-EPOCH-"$EPOCH"-L-"$Layer"-HIDDEN-"$HIDDEN"-LR-"$LR"-decay/
    DATA_PATH=../../data/dataset/
    forseedin {1..10};do
    FILE_NAME=learn-"$DS"-gcn-seed-"$seed"
    python ../../src/train_dgl_ogb.py \
    --gpu $GPU \
    --epoch $EPOCH \
    --dropout $DP \
    --model GCN_dp \
    --batch_size $BS \
    --n_layers $Layer \
    --lr $LR \
    --n_hidden $HIDDEN \
    --seed $seed \
    --dataset $DS \
    --log_dir $LOG_PATH \
    --model_path $MODEL_PATH \
    --data_dir $DATA_PATH \
    --exp $FILE_NAME \
    --norm_type $NORM \
    --log_norm
    done
    #!/usr/bin/env bashset -e
    GPU=0
    L=6
    NORM=gn
    MODEL=GCN_dp
    DS=ogbg-molhiv
    BS=128
    MODEL_PATH=../../model/[The path name of the Pre-trained Model]/
    DATA_PATH=../../data/dataset/
    python ../../src/evaluate_ogb.py \
    --gpu $GPU \
    --n_layers $L \
    --dataset $DS \
    --model_path $MODEL_PATH \
    --data_dir $DATA_PATH \
    --norm_type $NORM \
    --model $MODEL \
    --batch_size $BS

Results

  • Training Performance

Fig-Training Performance

  • Test Performance

GCN with GraphNorm outperforms several sophisticated GNNs on OGBG-MOLHIV datasets.

RankMethodTest ROC-AUC
1GCN+GraphNorm$0.7883\pm0.0100$
2HIMP$0.7880\pm0.0082$
3DeeperGCN$0.7858\pm0.0117$
4WEGL$0.7757\pm0.0111$
5GIN+virtual node$0.7707\pm0.0149$
6GCN$0.7606\pm0.0097$
7GCN+virtual node$0.7599\pm0.0119$
8GIN$0.7558\pm0.0140$

Fig-Test Performance

  • Ablation Study

Fig-Ablation Study

  • Visualizations of Singular value distribution

Fig-Singular Value Distribution

  • Visualizations of Noisy Batch-level Statistics

Fig-Batch Level Statistics

Citation

@misc{cai2020graphnorm,
title={GraphNorm: A Principled Approach to Accelerating Graph Neural Network Training},
author={Tianle Cai and Shengjie Luo and Keyulu Xu and Di He and Tie-yan Liu and Liwei Wang},
year={2020},
eprint={2009.03294},
archivePrefix={arXiv},
primaryClass={cs.LG}
}

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[ICML 2021] GraphNorm: A Principled Approach to Accelerating Graph Neural Network Training (official implementation)

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GraphNorm: A Principled Approach to Accelerating Graph Neural Network Training

Tianle Cai*, Shengjie Luo*, Keyulu Xu, Di He, Tie-Yan Liu, Liwei Wang

This repository is the official implementation of GraphNorm: A Principled Approach to Accelerating Graph Neural Network Training, based on the PyTorch and DGL library.

Contact

Tianle Cai (caitianle1998@pku.edu.cn), Shengjie Luo (luosj@stu.pku.edu.cn)

Sincerely appreciate your suggestions on our work!

Overview

GraphNorm is a principled normalization method that accelerates the GNNs training on graph classification tasks, where the key idea is to normalize all nodes for each individual graph with a learnable shift. Theoretically, we show that GraphNorm serves as a preconditioner that smooths the distribution of the graph aggregation's spectrum, and the learnable shift is used to improve the expressiveness of the networks. Empirically, we conduct experiments on several popular benckmark datasets, including the recently released Open Graph Benchmark. Results on datasets with different scale consistently show that GNNs with GraphNorm converge much faster and achieve better generalization performance.

Fig-Overview

Installation

  1. Clone this repository
git clone https://github.com/lsj2408/GraphNorm.git
  1. Install the dependencies (Python 3.6.8)
pip install -r requirements.txt

Examples

Results for Bioinformatics and Social Network datasets

Training

To reproduce Figure 4 in our paper, run as follows:

cd ./GraphNorm_ws/gnn_ws/gnn_example/scripts/example-train-comparison
  • Bioinformatics datasets: MUTAG, PTC, PROTEINS, NCI1

    ./gin-train-bioinformatics.sh
    ./gcn-train-bioinformatics.sh
  • Social Network datasets

    • REDDIT-BINARY

      ./gin-train-rdtb.sh
      ./gcn-train-rdtb.sh
    • IMDB-BINARY

      ./gin-train-imdbb.sh
      ./gcn-train-imdbb.sh
    • COLLAB

      ./gin-train-collab.sh
      ./gcn-train-collab.sh

Results are stored in ./gnn_ws/log/Example-train-performance/, you can use the recorded metric numbers to plot the training curves as Figure 4 in our paper.

Testing

Here we provide examples to reproduce the test results on Bioinformatics and Social Network datasets.

cd ./GraphNorm_ws/gnn_ws/gnn_example/scripts/example-test-comparison
  • PROTEINS:

    ./gin-train-proteins.sh
  • REDDIT-BINARY:

    ./gin-train-rdtb.sh

Results are stored in ./gnn_ws/log/Example-test-performance/. For further results on other datasets, follow the configurations on Appendix C.

Results for Ogbg-molhiv

Training

Training process is performed with 10 different random seeds

  • GCN

    cd ./GraphNorm_ws/ogbg_ws/scripts/Example-gcn-test-performance
    ./seed-1-5-gcn_run.sh
    ./seed-6-10-gcn_run.sh
  • GIN

    cd ./GraphNorm_ws/ogbg_ws/scripts/Example-gin-test-performance
    ./seed-1-5-gin_run.sh
    ./seed-6-10-gin_run.sh

Results can be found in :

  • ./GraphNorm_ws/ogbg_ws/log/: recorded metric values along training process,
  • ./GraphNorm_ws/ogbg_ws/model: model checkpoints, which has the maximum validation metric values along training process.

Notes:

The number of epoch as 20~30 is fine for GIN with GraphNorm.

Evaluation

For evaluation, we use the dumped model checkpoints and report the mean and standard deviation metric values.

  • Use your own trained models

    Set the MODEL_PATH in ./ogbg_ws/scripts/evaluate_gin.sh / ./ogbg_ws/scripts/evaluate_gcn.sh to the desired item.

  • Use provided pre-trained models

    We provide the TOP-1 model on OGBG-MOLHIV datasets here. The training and evaluation command is provided below.

    #!/usr/bin/env bashset -e
    GPU=0
    NORM=gn
    BS=128
    DP=0.1
    EPOCH=50
    Layer=6
    LR=0.0001
    HIDDEN=300
    DS=ogbg-molhiv
    LOG_PATH=../../log/"$NORM"-BS-"$BS"-EPOCH-"$EPOCH"-L-"$Layer"-HIDDEN-"$HIDDEN"-LR-"$LR"-decay/
    MODEL_PATH=../../model/"$NORM"-BS-"$BS"-EPOCH-"$EPOCH"-L-"$Layer"-HIDDEN-"$HIDDEN"-LR-"$LR"-decay/
    DATA_PATH=../../data/dataset/
    forseedin {1..10};do
    FILE_NAME=learn-"$DS"-gcn-seed-"$seed"
    python ../../src/train_dgl_ogb.py \
    --gpu $GPU \
    --epoch $EPOCH \
    --dropout $DP \
    --model GCN_dp \
    --batch_size $BS \
    --n_layers $Layer \
    --lr $LR \
    --n_hidden $HIDDEN \
    --seed $seed \
    --dataset $DS \
    --log_dir $LOG_PATH \
    --model_path $MODEL_PATH \
    --data_dir $DATA_PATH \
    --exp $FILE_NAME \
    --norm_type $NORM \
    --log_norm
    done
    #!/usr/bin/env bashset -e
    GPU=0
    L=6
    NORM=gn
    MODEL=GCN_dp
    DS=ogbg-molhiv
    BS=128
    MODEL_PATH=../../model/[The path name of the Pre-trained Model]/
    DATA_PATH=../../data/dataset/
    python ../../src/evaluate_ogb.py \
    --gpu $GPU \
    --n_layers $L \
    --dataset $DS \
    --model_path $MODEL_PATH \
    --data_dir $DATA_PATH \
    --norm_type $NORM \
    --model $MODEL \
    --batch_size $BS

Results

  • Training Performance

Fig-Training Performance

  • Test Performance

GCN with GraphNorm outperforms several sophisticated GNNs on OGBG-MOLHIV datasets.

RankMethodTest ROC-AUC
1GCN+GraphNorm$0.7883\pm0.0100$
2HIMP$0.7880\pm0.0082$
3DeeperGCN$0.7858\pm0.0117$
4WEGL$0.7757\pm0.0111$
5GIN+virtual node$0.7707\pm0.0149$
6GCN$0.7606\pm0.0097$
7GCN+virtual node$0.7599\pm0.0119$
8GIN$0.7558\pm0.0140$

Fig-Test Performance

  • Ablation Study

Fig-Ablation Study

  • Visualizations of Singular value distribution

Fig-Singular Value Distribution

  • Visualizations of Noisy Batch-level Statistics

Fig-Batch Level Statistics

Citation

@misc{cai2020graphnorm,
title={GraphNorm: A Principled Approach to Accelerating Graph Neural Network Training},
author={Tianle Cai and Shengjie Luo and Keyulu Xu and Di He and Tie-yan Liu and Liwei Wang},
year={2020},
eprint={2009.03294},
archivePrefix={arXiv},
primaryClass={cs.LG}
}

About

[ICML 2021] GraphNorm: A Principled Approach to Accelerating Graph Neural Network Training (official implementation)

Topics

Resources

Stars

106 stars

Watchers

2 watching

Forks

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Packages

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Languages