Gradient-Aware Depth Sensitivity Scoring for Optimizing Neural Network Pruning: (PhD Forum Paper)

Pruning is essential for deploying neural networks on edge devices, with unstructured pruning effectively compressing models without significant accuracy loss. Current methods focus mainly on weight magnitude, neglecting important factors like layer depth, activation nonlinearity, and gradient feedback, leading to suboptimal pruning. To overcome these issues, we propose a novel technique that adjusts layerwise sparsity dynamically using multiple contextual factors. Our score-based mechanism incorporates weight magnitude and adapts to modelspecific features such as layer depth, nonlinearity, and gradient information. This method preserves crucial connections, significantly reduces parameters, and consistently outperforms traditional pruning techniques, offering a robust, hyperparameter-free solution.

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Publication Details

Published
2024-12-10
DOI
https://doi.org/10.1109/icfpt64416.2024.11113400
Primary Topic
Neural Networks and Applications
Type
article
Field-Weighted Citation Impact
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article

Gradient-Aware Depth Sensitivity Scoring for Optimizing Neural Network Pruning: (PhD Forum Paper)

Dongwei Yan, Chiu‐Wing Sham, Longyu Ma, Zongcheng Yue
Neural Networks and Applications
article

Gradient-Aware Depth Sensitivity Scoring for Optimizing Neural Network Pruning: (PhD Forum Paper)

Dongwei Yan, Chiu‐Wing Sham, Longyu Ma, Zongcheng Yue
article en

Abstract

Pruning is essential for deploying neural networks on edge devices, with unstructured pruning effectively compressing models without significant accuracy loss. Current methods focus mainly on weight magnitude, neglecting important factors like layer depth, activation nonlinearity, and gradient feedback, leading to suboptimal pruning. To overcome these issues, we propose a novel technique that adjusts layerwise sparsity dynamically using multiple contextual factors. Our score-based mechanism incorporates weight magnitude and adapts to modelspecific features such as layer depth, nonlinearity, and gradient information. This method preserves crucial connections, significantly reduces parameters, and consistently outperforms traditional pruning techniques, offering a robust, hyperparameter-free solution.

University of Auckland (NZ)
Openalex Percentile: Top 72%
Neural Networks and Applications
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