Pruned Graph Neural Networks for Efficient Edge Classification and Fast Inference

Optimizing Graph Neural Networks (GNNs) inference is important for various applications, including High-Energy Physics experiments, natural language processing, and point cloud analysis. Effective optimization techniques, such as pruning, model reduction, automatic mixed precision, and advanced compilation strategies, improve inference speed and memory efficiency significantly. These methods are crucial for deploying GNNs in resource-constrained environments, ensuring scalability and real-time responses. In an experimental setting, using the TrackML dataset and applying these techniques to GNN models yielded promising results. Pruning and model reduction, in particular, emerged as the most impactful methods, leading to a 53% reduction in inference time and a 42% decrease in overall memory usage. These improvements demonstrate the potential of customized optimizations in improving GNN performance, making them more feasible for various real-world applications where computational efficiency is very important.

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Published
2024-12-15
DOI
https://doi.org/10.1109/bigdata62323.2024.10825746
Primary Topic
Advanced Neural Network Applications
Type
article
Field-Weighted Citation Impact
0.00

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article

Pruned Graph Neural Networks for Efficient Edge Classification and Fast Inference

Alina Lazar, Henry Paschke, James Gaboriault-Whitcomb, Carson Zoccole
Advanced Neural Network Applications
article

Pruned Graph Neural Networks for Efficient Edge Classification and Fast Inference

Alina Lazar, Henry Paschke, James Gaboriault-Whitcomb, Carson Zoccole
article en

Abstract

Optimizing Graph Neural Networks (GNNs) inference is important for various applications, including High-Energy Physics experiments, natural language processing, and point cloud analysis. Effective optimization techniques, such as pruning, model reduction, automatic mixed precision, and advanced compilation strategies, improve inference speed and memory efficiency significantly. These methods are crucial for deploying GNNs in resource-constrained environments, ensuring scalability and real-time responses. In an experimental setting, using the TrackML dataset and applying these techniques to GNN models yielded promising results. Pruning and model reduction, in particular, emerged as the most impactful methods, leading to a 53% reduction in inference time and a 42% decrease in overall memory usage. These improvements demonstrate the potential of customized optimizations in improving GNN performance, making them more feasible for various real-world applications where computational efficiency is very important.

Youngstown State University (US)
Office of Science
Openalex Percentile: Top 74%
Advanced Neural Network Applications
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Pruned Graph Neural Networks for Efficient Edge Classification and Fast Inference — Alina Lazar, Henry Paschke, et al. · (2024) | TGRS Research Map | TGRS