Correlation-Aware Joint Pruning-Quantization using Graph Neural Networks

Deep learning in image classification has achieved remarkable success but at the cost of high resource demands. Model compression through automatic joint pruning-quantization addresses this issue, yet most existing techniques overlook a critical aspect: layer correlations. These correlations are essential as they expose redundant computations across layers, and leveraging them facilitates efficient design space exploration. This study employs Graph Neural Networks (GNN) to learn these inter-layer relationships, thereby optimizing the pruning-quantization strategy for the targeted model. This approach has yielded a 99.36% reduction in complexity for ResNet 20 on CIFAR-10, with only a minimal 0.11% drop in accuracy. Furthermore, the integration of GNN sped up the convergence process, reducing iterations by 2.46 times on average, compared to methods without GNN.

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Publication Details

Published
2024-09-27
DOI
https://doi.org/10.1109/icip51287.2024.10647517
Citations
2
Primary Topic
Photonic and Optical Devices
Type
article
Field-Weighted Citation Impact
0.42
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article

Correlation-Aware Joint Pruning-Quantization using Graph Neural Networks

Muhammad Nadzir Marsono, Jeevan Sirkunan, Mohammed S. Mohammed, Usman Ullah Sheikh et al.
2 citations
Photonic and Optical Devices
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article

Correlation-Aware Joint Pruning-Quantization using Graph Neural Networks

Muhammad Nadzir Marsono, Jeevan Sirkunan, Mohammed S. Mohammed, Usman Ullah Sheikh, Muhammad Nor Azzafri Nor-Azman
article en
2 citations

Abstract

Deep learning in image classification has achieved remarkable success but at the cost of high resource demands. Model compression through automatic joint pruning-quantization addresses this issue, yet most existing techniques overlook a critical aspect: layer correlations. These correlations are essential as they expose redundant computations across layers, and leveraging them facilitates efficient design space exploration. This study employs Graph Neural Networks (GNN) to learn these inter-layer relationships, thereby optimizing the pruning-quantization strategy for the targeted model. This approach has yielded a 99.36% reduction in complexity for ResNet 20 on CIFAR-10, with only a minimal 0.11% drop in accuracy. Furthermore, the integration of GNN sped up the convergence process, reducing iterations by 2.46 times on average, compared to methods without GNN.

University of Technology Malaysia (MY)
Openalex Percentile: Top 38%
Photonic and Optical Devices
0.42
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