Advances in Self-Supervised Learning for Synthetic Aperture Sonar Data Processing, Classification, and Pattern Recognition
Brandon Sheffield, Frank E. Bobe III, Bradley Marchand, Matthew S., Emigh

TL;DR
This paper introduces MoCo-SAS, a self-supervised learning approach that significantly improves synthetic aperture sonar data processing and classification, overcoming labeled data scarcity and advancing underwater exploration capabilities.
Contribution
The paper presents a novel SSL method, MoCo-SAS, specifically designed for SAS data, demonstrating superior performance over traditional supervised methods.
Findings
MoCo-SAS outperforms traditional supervised learning in F1-score
SSL effectively addresses labeled data scarcity in SAS
Enhanced underwater object detection and classification
Abstract
Synthetic Aperture Sonar (SAS) imaging has become a crucial technology for underwater exploration because of its unique ability to maintain resolution at increasing ranges, a characteristic absent in conventional sonar techniques. However, the effective application of deep learning to SAS data processing is often limited due to the scarcity of labeled data. To address this challenge, this paper proposes MoCo-SAS that leverages self-supervised learning (SSL) for SAS data processing, classification, and pattern recognition. The experimental results demonstrate that MoCo-SAS significantly outperforms traditional supervised learning methods, as evidenced by significant improvements observed in terms of the F1-score. These findings highlight the potential of SSL in advancing the state-of-the-art in SAS data processing, offering promising avenues for enhanced underwater object detection and…
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Taxonomy
TopicsUnderwater Acoustics Research · Arctic and Antarctic ice dynamics · Oceanographic and Atmospheric Processes
