Heikkinen Tia, Küblbeck Jenni, Rysä Jaana
Faculty of Health Sciences, School of Pharmacy, University of Eastern Finland, P.O. Box 1627, 70211, Kuopio, Finland.
A.I. Virtanen Institute for Molecular Sciences, University of Eastern Finland, Kuopio, Finland.
Arch Toxicol. 2025 May;99(5):1749-1767. doi: 10.1007/s00204-025-03957-w. Epub 2025 Feb 9.
Metabolic disruption encompasses the processes leading to adverse effects to major metabolic organs, such as liver and pancreas after exposure to e.g., environmental chemicals. As some mycotoxins act as endocrine disruptors, their structural similarity may lead to effects in lipid and glucose metabolism as well. Via systematic literature search, we mapped the potential of mycotoxins to cause metabolic disruption. Our systematic data search involved mycotoxin keywords combined with metabolic disruption keywords. The retrieved 31 studies revealed 24 in vivo studies, and 18 in vitro studies in total of 13 different mycotoxins. Most studied parameters were triglycerides from blood or liver, followed by total cholesterol and glucose or insulin levels. In vitro studies most often aimed to reveal mechanisms of metabolic disruption, but common metabolic parameters (lipid or cholesterol accumulation). In general, mycotoxin exposure showed a trend towards positive metabolic effects, such as reduction of blood triglycerides levels. Emodin was the most studied mycotoxin. Other mycotoxins were studied in one to three studies. Positive effects were also identified for equisetin, fumonisin B1, fumigaclavine C and ergostatrien-3-B-ol. Adverse effects (e.g. increased lipid deposition to liver) were identified for aflatoxin B1, ochratoxin A, deoxynivalenol, citreoviridin, T-2 toxin and paxilline. As demonstrated by the evaluated in vivo and in vitro studies, mycotoxins seem to have more positive than negative effects on metabolism. However, based on the available data, a general conclusion on the role of mycotoxins as a group cannot be made.
代谢紊乱包括接触环境化学物质等导致对主要代谢器官(如肝脏和胰腺)产生不良影响的过程。由于一些霉菌毒素可作为内分泌干扰物,它们的结构相似性也可能导致脂质和葡萄糖代谢方面的影响。通过系统的文献检索,我们梳理了霉菌毒素导致代谢紊乱的可能性。我们的系统数据检索涉及霉菌毒素关键词与代谢紊乱关键词的组合。检索到的31项研究共揭示了24项体内研究和18项体外研究,涉及13种不同的霉菌毒素。研究最多的参数是血液或肝脏中的甘油三酯,其次是总胆固醇以及葡萄糖或胰岛素水平。体外研究大多旨在揭示代谢紊乱的机制,但常见的代谢参数是(脂质或胆固醇积累)。总体而言,霉菌毒素暴露呈现出对代谢产生积极影响的趋势,例如降低血液甘油三酯水平。大黄素是研究最多的霉菌毒素。其他霉菌毒素的研究仅有一至三项。对木贼菌素、伏马菌素B1、烟曲霉黄青霉素C和麦角三烯-3-β-醇也发现了积极影响。对黄曲霉毒素B1、赭曲霉毒素A、脱氧雪腐镰刀菌烯醇、黄绿青霉素、T-2毒素和青霉素也发现了不良影响(如肝脏脂质沉积增加)。正如体内和体外研究所表明的,霉菌毒素对代谢的积极影响似乎多于消极影响。然而,基于现有数据,无法就霉菌毒素作为一个整体的作用得出一般性结论。