Nicolás Salinas-Parra, Débora Torrealba, Andrea Ahumada, Carolina Figueroa, José Gallardo-Matus
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We conducted a systematic literature search across Web of Science, PubMed, and Scopus databases following PRISMA guidelines. Out of an initial 1123 studies published up to August 2024 screened for eligibility, only 24 met the criteria for inclusion based on relevance to vaccine development for bacterial fish pathogens. Our review identified 16 cell lines and four primary cultures with potential applications for vaccine development in fish species such as rainbow trout, olive flounder, Asian seabass (barramundi) and Atlantic salmon. Key applications of cell lines and primary cultures in vaccine development involve immunostimulatory and immunomodulatory effects (9/24; 37.5 %), cytotoxicity testing (8/24; 33.3 %), and DNA vaccine fabrication via transfection (6/24; 25 %). However, our findings reveal limited availability of cell lines in biobanks (ATCC, JCRB and ECACC), which hampers result reproducibility. 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引用次数: 0
摘要
细菌爆发对全球水产养殖业构成重大挑战,造成高死亡率和经济损失,并通过抗生素过度使用、生态破坏和粮食安全降低威胁环境平衡和社会稳定。防治这些疾病和降低死亡率的一个重要办法是研制疫苗。在这种情况下,细胞系和原代培养提供了一个直接和经济的模型来评估疫苗的效力。为了确定细胞培养在鱼类细菌病原体疫苗开发中的应用,本研究系统地回顾了目前对鱼类细胞系和原代培养的了解。我们按照PRISMA的指导方针,对Web of Science、PubMed和Scopus数据库进行了系统的文献检索。在截至2024年8月发表的1123项初步研究中,只有24项研究符合基于与细菌性鱼类病原体疫苗开发相关的纳入标准。我们的综述确定了16种细胞系和4种原代培养物,这些细胞系和原代培养物可能应用于虹鳟、橄榄比目鱼、亚洲海鲈(barramundi)和大西洋鲑鱼等鱼类的疫苗开发。细胞系和原代培养物在疫苗开发中的关键应用涉及免疫刺激和免疫调节作用(9/24;37.5%),细胞毒性测试(8/24;33.3%),以及通过转染制备DNA疫苗(6/24;25%)。然而,我们的发现揭示了生物库(ATCC, JCRB和ECACC)细胞系的有限可用性,这阻碍了结果的可重复性。我们得出的结论是,尽管细胞系和原代培养物在疫苗开发方面具有很高的潜力,但这些模型仅在少数鱼类中作为常规工具建立。
Cell lines and primary cultures uses for vaccine development for bacterial pathogens of fish: a systematic review.
Bacterial outbreaks pose major challenges to global fish aquaculture, causing high mortality, economic losses, and threatening environmental balance and social stability through antibiotic overuse, ecological disruption, and reduced food security. One prominent approach to combat these diseases and reduce mortality involves vaccine development. In this context, cell lines and primary cultures provide a straightforward and economical model to evaluate vaccine efficacy. To determine the uses of cell culture in the development of fish vaccines against bacterial pathogens, this study systematically reviews the current knowledge of cell lines and primary cultures in fish. We conducted a systematic literature search across Web of Science, PubMed, and Scopus databases following PRISMA guidelines. Out of an initial 1123 studies published up to August 2024 screened for eligibility, only 24 met the criteria for inclusion based on relevance to vaccine development for bacterial fish pathogens. Our review identified 16 cell lines and four primary cultures with potential applications for vaccine development in fish species such as rainbow trout, olive flounder, Asian seabass (barramundi) and Atlantic salmon. Key applications of cell lines and primary cultures in vaccine development involve immunostimulatory and immunomodulatory effects (9/24; 37.5 %), cytotoxicity testing (8/24; 33.3 %), and DNA vaccine fabrication via transfection (6/24; 25 %). However, our findings reveal limited availability of cell lines in biobanks (ATCC, JCRB and ECACC), which hampers result reproducibility. We conclude that, despite the high potential of cell lines and primary cultures for vaccine development, these models are established as routine tools in only a few fish species.
期刊介绍:
Fish and Shellfish Immunology rapidly publishes high-quality, peer-refereed contributions in the expanding fields of fish and shellfish immunology. It presents studies on the basic mechanisms of both the specific and non-specific defense systems, the cells, tissues, and humoral factors involved, their dependence on environmental and intrinsic factors, response to pathogens, response to vaccination, and applied studies on the development of specific vaccines for use in the aquaculture industry.