Istanbul Technical University Faculty of Chemical and Metallurgical Engineering Department of Food Engineering 34469 Maslak, Istanbul, Türki̇ye.
Bayburt University, Faculty of Engineering Department of Food Engineering 69000 Bayburt, Türki̇ye.
J Agric Food Chem. 2023 Jul 5;71(26):9923-9950. doi: 10.1021/acs.jafc.3c00315. Epub 2023 Jun 23.
Fungi-induced postharvest diseases are the leading causes of food loss and waste. In this context, fruit decay can be directly attributed to phytopathogenic and/or mycotoxin-producing fungi. The U.N. Sustainable Development Goals aim to end hunger by 2030 by improving food security, sustainable agriculture, and food production systems. Antagonistic yeasts are one of the methods presented to achieve these goals. Unlike physical and chemical methods, harnessing antagonistic yeasts as a biological method controls the decay caused by fungi and adsorbs and/or degrades mycotoxins sustainably. Therefore, antagonistic yeasts and their antifungal mechanisms have gained importance. Additionally, mycotoxins' biodetoxification is carried out due to the occurrence of mycotoxin-producing fungal species in fruits. Combinations with processes and agents have been investigated to increase antagonistic yeasts' efficiency. Therefore, this review provides a comprehensive summary of studies on preventing phytopathogenic and mycotoxigenic fungi and their mycotoxins in fruits, as well as biocontrolling and biodetoxification mechanisms.
真菌引起的采后病害是导致食物损失和浪费的主要原因。在这种情况下,水果腐烂可以直接归因于植物病原真菌和/或产毒真菌。联合国可持续发展目标旨在通过改善粮食安全、可持续农业和粮食生产系统,到 2030 年消除饥饿。拮抗酵母是实现这些目标的方法之一。与物理和化学方法不同,利用拮抗酵母作为生物方法可以控制真菌引起的腐烂,并可持续地吸附和/或降解霉菌毒素。因此,拮抗酵母及其抗真菌机制变得重要起来。此外,由于真菌在水果中产生霉菌毒素,因此进行了霉菌毒素的生物解毒。已经研究了与工艺和试剂的组合以提高拮抗酵母的效率。因此,本文综述了预防水果中植物病原真菌和产毒真菌及其霉菌毒素的研究进展,以及生物防治和生物解毒机制。