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水产养殖中的精准养殖:在商业养殖场中使用非侵入性、人工智能驱动的行为监测方法评估大西洋鲑鱼()的鳃健康状况。

Precision farming in aquaculture: assessing gill health in Atlantic salmon () using a non-invasive, AI-driven behavioural monitoring approach in commercial farms.

作者信息

Burke Meredith, Nikolic Dragana, Fabry Pieter, Rishi Hemang, Telfer Trevor, Rey Planellas Sonia

机构信息

Institute of Aquaculture, Faculty of Natural Sciences, University of Stirling, Stirling, UK.

Observe Technologies, Richmond, UK.

出版信息

Aquac Sci Manag. 2025;2(1):15. doi: 10.1186/s44365-025-00020-8. Epub 2025 Aug 15.

Abstract

UNLABELLED

As the aquaculture industry grows, more sophisticated technology is required to monitor farms and ensure good fish welfare, in line with the precision livestock farming concept. Using behaviour as a non-invasive monitoring tool, combined with artificial intelligence, enables greater control over farm management. This study aimed to assess temporal changes in farmed Atlantic salmon () group behavioural profiles related to fish health and welfare. A machine vision algorithm applied to feed cameras on commercial farms was used to determine whether changes in gill health would induce visible group behavioural changes. Video cameras were deployed in all cages at two Scottish Atlantic salmon marine farms. One cage at each farm was also equipped with additional cameras (5 and 4 at sites A and B, respectively) to provide higher spatial coverage of fish behaviour and distribution. The algorithm processed video footage from these cameras and produced behavioural data termed 'activity' (%), which encompasses fish abundance, speed, and shoal cohesion. Additionally, gill health, Operational Welfare Indicators (OWI), mortality, and Specific Feeding Rate (SFR) were scored weekly at both sites. During summer 2023, gill health issues arose at both farms, leading to fish stress reflected in the behavioural data. For two months prior to the onset of poor gill health, the average (± standard deviation) activity levels of the fish across all cages were 25.6 ± 10.5% and 24.9 ± 7.0% for Farm A and B, respectively. After gill health was compromised, the activity rose significantly for two months in all cages with a mean of 43.6 ± 15.1% and 32.6 ± 9.6%, respectively. A generalised linear mixed model revealed that Proliferative Gill Disease (PGD) was the main driver of this increase in activity. This increase in activity coincided with fish migration to the centre of the cage, meaning tighter shoaling, which is a normal stress response often seen in relation to predators and other environmental or health stressors. The use of behaviour as a non-invasive welfare indicator and the potential to use artificial intelligence to automate the process of behavioural identification allows farmers to improve welfare conditions and ensure industry sustainability.

SUPPLEMENTARY INFORMATION

The online version contains supplementary material available at 10.1186/s44365-025-00020-8.

摘要

未标注

随着水产养殖业的发展,需要更先进的技术来监测养殖场并确保良好的鱼类福利,这符合精准畜牧养殖的理念。将行为作为一种非侵入性监测工具,并结合人工智能,可以更好地控制养殖场管理。本研究旨在评估与鱼类健康和福利相关的养殖大西洋鲑鱼群体行为特征的时间变化。应用于商业养殖场饲料摄像头的机器视觉算法被用于确定鳃健康状况的变化是否会引起明显的群体行为变化。在两个苏格兰大西洋鲑鱼海洋养殖场的所有网箱中都部署了摄像机。每个养殖场的一个网箱还配备了额外的摄像头(A 场和 B 场分别为 5 个和 4 个),以提供更高空间覆盖的鱼类行为和分布情况。该算法处理这些摄像头的视频 footage,并生成称为“活动”(%)的行为数据,其中包括鱼类数量、速度和鱼群凝聚力。此外,每周都会对两个养殖场的鳃健康、操作福利指标(OWI)、死亡率和特定摄食率(SFR)进行评分。在 2023 年夏季,两个养殖场都出现了鳃健康问题,导致行为数据中反映出鱼类应激。在鳃健康状况变差前的两个月里,A 场和 B 场所有网箱中鱼类的平均(±标准差)活动水平分别为 25.6±10.5%和 24.9±7.0%。鳃健康受损后,所有网箱中的活动在两个月内显著上升,平均分别为 43.6±15.1%和 32.6±9.6%。一个广义线性混合模型显示,增殖性鳃病(PGD)是活动增加的主要驱动因素。活动的增加与鱼类向网箱中心迁移同时发生,这意味着鱼群聚集更紧密,这是一种常见于与捕食者以及其他环境或健康应激源相关的正常应激反应。将行为作为一种非侵入性福利指标使用,以及利用人工智能自动化行为识别过程的潜力,使养殖者能够改善福利状况并确保行业可持续性。

补充信息

在线版本包含可在 10.1186/s44365-025-00020-8 获得的补充材料。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/0166/12369403/d7c34ceedc6b/44365_2025_20_Fig1_HTML.jpg

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