arXiv:2412.16147cs.CV2024-12被引 2

用深度学习自动识别海草并估算覆盖率,提升海洋生态监测效率。

SeagrassFinder: Deep Learning for Eelgrass Detection and Coverage Estimation in the Wild

  • 基于迁移学习训练多种深度模型,用图像判断海草有无
  • Vision Transformer在测试集上AUROC超0.95,表现最优
  • 新方法可高效处理大量视频数据,适合生态监测应用

海草床在海洋生态系统中至关重要,具有固碳、改善水质和提供栖息地等作用。当前依赖人工分析水下视频评估海草覆盖的方法耗时且主观。本文构建了包含超过8,300张标注水下图像的新数据集,评估了ResNet、InceptionNetV3、DenseNet和Vision Transformer等模型在海草有无二分类任务上的表现。结果表明,采用迁移学习的深度模型,特别是Vision Transformer,在最终测试集上实现了超过0.95的AUROC,表现优异。结合水下图像增强技术进一步提升了模型性能。此外,提出一种从视频数据估算海草覆盖率的新方法,初步结果与专家手动标注高度一致,展现出持续、可扩展监测的潜力。该方法可高效处理大规模视频数据,相比传统人工方式获取更详细的海草分布信息,对环境影响评估和保护项目具有重要意义。本研究展示了深度学习在海洋生态学与环境监测中的实用价值。

原文摘要 · Abstract (English)

Seagrass meadows play a crucial role in marine ecosystems, providing benefits such as carbon sequestration, water quality improvement, and habitat provision. Monitoring the distribution and abundance of seagrass is essential for environmental impact assessments and conservation efforts. However, the current manual methods of analyzing underwater video data to assess seagrass coverage are time-consuming and subjective. This work explores the use of deep learning models to automate the process of seagrass detection and coverage estimation from underwater video data. We create a new dataset of over 8,300 annotated underwater images, and subsequently evaluate several deep learning architectures, including ResNet, InceptionNetV3, DenseNet, and Vision Transformer for the task of binary classification on the presence and absence of seagrass by transfer learning. The results demonstrate that deep learning models, particularly Vision Transformers, can achieve high performance in predicting eelgrass presence, with AUROC scores exceeding 0.95 on the final test dataset. The application of underwater image enhancement further improved the models' prediction capabilities. Furthermore, we introduce a novel approach for estimating seagrass coverage from video data, showing promising preliminary results that align with expert manual labels, and indicating potential for consistent and scalable monitoring. The proposed methodology allows for the efficient processing of large volumes of video data, enabling the acquisition of much more detailed information on seagrass distributions in comparison to current manual methods. This information is crucial for environmental impact assessments and monitoring programs, as seagrasses are important indicators of coastal ecosystem health. This project demonstrates the value that deep learning can bring to the field of marine ecology and environmental monitoring.

海草监测深度学习视觉检测生态遥感

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