Dynamic Channel Selection in Self-Supervised Learning
Tarun Krishna, Ayush K. Rai, Yasser A. D. Djilali, Alan F. Smeaton,, Kevin McGuinness, Noel E. O'Connor

TL;DR
This paper explores dynamic channel selection in self-supervised learning models to reduce computational costs while maintaining performance, adapting supervised channel selection methods to self-supervised networks across multiple datasets.
Contribution
It demonstrates that a standard channel selection method can be effectively applied to self-supervised models, achieving significant FLOPs reduction without performance loss.
Findings
Comparable accuracy with reduced FLOPs across datasets
Effective application of supervised channel selection to self-supervised models
Significant computational savings in image classification tasks
Abstract
Whilst computer vision models built using self-supervised approaches are now commonplace, some important questions remain. Do self-supervised models learn highly redundant channel features? What if a self-supervised network could dynamically select the important channels and get rid of the unnecessary ones? Currently, convnets pre-trained with self-supervision have obtained comparable performance on downstream tasks in comparison to their supervised counterparts in computer vision. However, there are drawbacks to self-supervised models including their large numbers of parameters, computationally expensive training strategies and a clear need for faster inference on downstream tasks. In this work, our goal is to address the latter by studying how a standard channel selection method developed for supervised learning can be applied to networks trained with self-supervision. We validate our…
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Taxonomy
TopicsCell Image Analysis Techniques · Domain Adaptation and Few-Shot Learning · Digital Imaging for Blood Diseases
