利用计算机视觉和人工智能进行捕鱼事件检测和鱼种分类,实现电子监控

IF 2.2 2区 农林科学 Q2 FISHERIES Fisheries Research Pub Date : 2024-09-04 DOI:10.1016/j.fishres.2024.107141
Muhammad Saqib , Muhammad Rizwan Khokher , Xin Yuan , Bo Yan , Douglas Bearham , Carlie Devine , Candice Untiedt , Toni Cannard , Kylie Maguire , Geoffrey N. Tuck , L. Rich Little , Dadong Wang
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引用次数: 0

摘要

渔业法规要求商业渔船详细报告渔获量。鱼类种群可持续管理的重要组成部分包括对渔获量和鱼种组成的可靠估计。渔获量记录通常由渔船上的人工观察员手动完成。人工观察员的成本很高,而且数据流的一致性可能受观察员的可用性和天气的影响。渔船上的摄像机(电子监测,EM)越来越多地替代人工观察员。然而,陆地上的人工审核员需要审核数百小时的捕鱼过程中录制的视频,而这些视频可能会持续数周之久。本文提出了一个框架,用于自动检测 EM 视频中的鱼类、计算总捕鱼事件并对鱼类进行分类。为此,我们开发了一个基于深度学习和计算机视觉的模型,以高效检测船上的鱼和捕鱼者。其次,基于视觉的跟踪管道会跟踪检测到的鱼类,并计算视频中的所有捕鱼事件。第三,通过基于深度学习的鱼类物种分类器对提取的捕鱼事件进行分类,以提供一次捕鱼之旅捕获的不同鱼类物种的分布情况。在我们的实验中,数据集是利用一艘渔船多次出海捕鱼的电子监控数据制作的。这些视频记录在澳大利亚的延绳钓船上,目标是金枪鱼和长咀鲉。在鱼类检测任务中,对视频帧进行了提取和人工标注,以提供数字地面实况。在鱼类物种分类任务中,对数百张多个物种的鱼类图像进行裁剪,为鱼类分类器提供训练数据集。在鱼类计数任务中,对测试捕鱼行程中各个鱼类物种的捕鱼事件进行人工计数。在测试视频帧上,所开发的鱼类和渔民检测器的平均精度分别为 87.0% 和 94.0%。在测试视频中,捕鱼事件检测管道的平均准确率为 81.0%,平均召回率为 74.5%。鱼种分类器对裁剪过的鱼类图像进行分类的准确率(Top-1)为 91.11%,对从视频中提取的捕鱼事件进行分类的准确率(Top-1)为 89.05%。实验结果表明,我们提出的基于计算机视觉和人工智能的视频分析解决方案在实现电子监控录像审核过程自动化方面具有巨大潜力,有助于鱼类种群的可持续管理。
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Fishing event detection and species classification using computer vision and artificial intelligence for electronic monitoring

Fisheries regulations require detailed catch reporting on commercial fishing vessels. Vital components for the sustainable management of fish stocks include a robust estimate of the number of fish caught and the species composition. Catch recording is often done manually by human observers on fishing vessels. Human observers are costly, and consistent data streams can be subject to observer availability and the weather. On-vessel cameras (electronic monitoring, EM) are a growing alternative to human observers. However, on-land human auditors are required to review hundreds of hours of videos recorded during fishing trips that can last for weeks. In this paper, a framework is presented to automatically detect fish in EM videos, count the total fishing events, and classify the fish species. For this purpose, a deep learning and computer vision-based model is developed to efficiently detect fish and fishers onboard a vessel. Secondly, a vision-based tracking pipeline tracks the detected fish and counts the total fishing events in the videos. Thirdly, the extracted fishing events are classified through a deep learning-based fish species classifier, to provide the distribution of different fish species caught for a fishing trip. For our experiments, the datasets were prepared using the electronic monitoring data of multiple fishing trips of a fishing vessel. The videos were recorded on Australian longline vessels targeting tunas and billfish. For the fish detection task, video frames were extracted and labelled manually to provide a digital ground-truth. For the fish species classification task, hundreds of fish images of multiple species were cropped to provide a training dataset for the fish classifier. For the fish counting task, manual counts for the fishing events of individual fish species were generated for the test fishing trips. The developed fish and fisher detector achieves a mean Average Precision of 87.0 % for fish and 94.0 % for fishers on test video frames. The fishing event detection pipeline achieves an Average Precision of 81.0 % and an Average Recall of 74.5 % on test videos. The fish species classifier achieves an Accuracy (Top-1) of 91.11 % for the classification of cropped fish images and 89.05 % for the classification of extracted fishing events from the videos. Experimental results show that our proposed computer vision and artificial intelligence-based solution for video analysis has great potential to automate the auditing process from electronic monitoring footage and contribute to the sustainable management of fish stocks.

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来源期刊
Fisheries Research
Fisheries Research 农林科学-渔业
CiteScore
4.50
自引率
16.70%
发文量
294
审稿时长
15 weeks
期刊介绍: This journal provides an international forum for the publication of papers in the areas of fisheries science, fishing technology, fisheries management and relevant socio-economics. The scope covers fisheries in salt, brackish and freshwater systems, and all aspects of associated ecology, environmental aspects of fisheries, and economics. Both theoretical and practical papers are acceptable, including laboratory and field experimental studies relevant to fisheries. Papers on the conservation of exploitable living resources are welcome. Review and Viewpoint articles are also published. As the specified areas inevitably impinge on and interrelate with each other, the approach of the journal is multidisciplinary, and authors are encouraged to emphasise the relevance of their own work to that of other disciplines. The journal is intended for fisheries scientists, biological oceanographers, gear technologists, economists, managers, administrators, policy makers and legislators.
期刊最新文献
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