The Future of Pathogen Detection in Aquaculture: Miniature Labs, Field-Compatible Assays, environmental DNA and RNA, CRISPR and Metatranscriptomics

IF 1.1 Q3 FISHERIES
Jessica Rieder, Anastasiia Berezenko, Alexandra Meziti, Irene Adrian-Kalchhauser
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Abstract

Inland recirculating aquaculture is a thriving food industry providing sustainable and locally sourced high-quality protein. However, its expansion is accompanied by emerging challenges regarding the spread of pathogens and diseases. Detection and management of pathogens in aquaculture remain underdeveloped compared to other animal farming sectors due to the vast diversity of species involved, the non-domesticated species and limited knowledge regarding pathogens, host responses and disease mechanisms. Furthermore, recirculating aquaculture systems are heavily dependent on beneficial bacterial communities for waste product removal and water quality maintenance, with opportunistic pathogens constituting an inherent component of these microbial communities. To enhance the potential of inland aquaculture as a sustainable source of protein, it is imperative to adopt advanced tools for pathogen detection and monitoring and for assessing the overall health of the microbial ecosystem.

This paper presents an overview of promising current molecular and technological advancements that offer solutions for pathogen detection and system monitoring in aquaculture. We focus on recently developed point-of-care and on-site detection methods using miniaturized laboratory equipment and robust workflows that operate independently of cold chain logistics. We explore current methodologies for monitoring pathogens in the environment rather than through fish health assessments. Lastly, we discuss techniques from other scientific disciplines in aquaculture, including CRISPR-Cas protocols for pathogen detection and the implementation of ‘omics’ approaches for the comprehensive characterization of microbial states.

These methods demonstrate considerable potential for pathogen surveillance and, subsequently, early responses in the dynamic aquaculture field. Through a better understanding of available options, aquaculture managers and molecular scientists can collaborate and optimize systems. This paper aims to facilitate communication between molecular scientists and aquaculture managers, equipping the aquaculture industry with knowledge to enhance pathogen management techniques in their facilities.

Abstract Image

水产养殖病原体检测的未来:微型实验室,现场兼容检测,环境DNA和RNA, CRISPR和超转录组学
内陆循环水养殖是一个蓬勃发展的食品工业,提供可持续的本地优质蛋白质。然而,在其扩大的同时,也出现了病原体和疾病传播方面的新挑战。与其他动物养殖部门相比,水产养殖业病原体的检测和管理仍然不发达,原因是涉及的物种种类繁多、非驯化物种以及对病原体、宿主反应和疾病机制的了解有限。此外,循环水养殖系统在很大程度上依赖于有益的细菌群落来去除废物和维持水质,而机会致病菌是这些微生物群落的固有组成部分。为了提高内陆水产养殖作为可持续蛋白质来源的潜力,必须采用先进的病原体检测和监测工具,并评估微生物生态系统的整体健康状况。本文概述了当前有前途的分子和技术进展,为水产养殖中的病原体检测和系统监测提供了解决方案。我们专注于最近开发的护理点和现场检测方法,使用小型化实验室设备和独立于冷链物流运行的强大工作流程。我们探索目前监测环境中病原体的方法,而不是通过鱼类健康评估。最后,我们讨论了水产养殖中其他科学学科的技术,包括用于病原体检测的CRISPR-Cas协议和用于全面表征微生物状态的“组学”方法的实施。这些方法在病原体监测和随后在动态水产养殖领域的早期反应方面显示出相当大的潜力。通过更好地了解现有的选择,水产养殖管理者和分子科学家可以合作并优化系统。本文旨在促进分子科学家与水产养殖管理者之间的交流,为水产养殖业提供知识,以提高其设施中的病原体管理技术。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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