Novel organoids mode evaluating the food nutrition and safety: Current state and future prospects

IF 7.4 Q1 FOOD SCIENCE & TECHNOLOGY Food frontiers Pub Date : 2024-07-22 DOI:10.1002/fft2.451
Fengling Tan, Pengfei Cui, Siting Li, Yingxia Tan, Aijin Ma
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Abstract

Food nutrition and safety are the cornerstones of food industry, and appropriate research models are crucial. Unlike traditional animal models, the novel organoid model with unique humanization and genome stability has attracted great attentions in food research. However, there lacks systematic review on the application of organoids in food research. This review compared the organoid model with traditional animal and two‐dimensional cell models, followed by a systemic evaluation of the organoid model in food nutrition and safety regarding foodborne pathogenic bacteria, functional food factors, toxicology, flavor perception, and so on. Furthermore, emerging micromachining technologies such as microfluidic technology and three‐dimensional (3D) bioprinting were analyzed to improve the microenvironment and maturity of organoids. Although organoids overcome some shortcomings associated with traditional models, there are still some challenges to simulate the in vivo microenvironment fully. The development direction of organoids is integrating advanced technologies such as microfluidic technology, novel biomaterial scaffold, and 3D bioprinting with multi‐organ coculture technology and multi‐scale real‐time monitoring systems. The innovative development of organoid technology is expected to provide a theoretical basis for developing future foods represented by cell‐cultured meat and synthetic biological foods and for the research of food nutrition and safety.
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评估食品营养与安全的新型有机体模式:现状与前景
食品营养与安全是食品工业的基石,合适的研究模型至关重要。与传统动物模型不同,新型类器官模型具有独特的人性化和基因组稳定性,在食品研究中备受关注。然而,目前尚缺乏关于类器官在食品研究中应用的系统综述。本综述将类器官模型与传统动物模型和二维细胞模型进行了比较,然后对类器官模型在食源性致病菌、功能性食品因子、毒理学、风味感知等食品营养与安全方面的应用进行了系统评价。此外,还分析了新兴的微机械加工技术,如微流体技术和三维(3D)生物打印技术,以改善类器官的微环境和成熟度。虽然类器官克服了传统模型的一些缺陷,但要完全模拟体内微环境仍面临一些挑战。类器官的发展方向是将微流控技术、新型生物材料支架、三维生物打印等先进技术与多器官共培养技术、多尺度实时监测系统相结合。类器官技术的创新发展有望为开发以细胞培养肉类和合成生物食品为代表的未来食品以及食品营养与安全研究提供理论依据。
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CiteScore
10.50
自引率
0.00%
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0
审稿时长
10 weeks
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