Laboratory of Advanced Analysis in Biochemistry and Molecular Biology (LAABBM), Department of Biochemistry, Federal University of Rio de Janeiro (UFRJ), Cidade Universitária, Rio de Janeiro 21941-909, RJ, Brazil.
Graduate Program in Chemistry (PGQu), Institute of Chemistry (IQ), Federal University of Rio de Janeiro (UFRJ), Cidade Universitária, Rio de Janeiro 21941-909, RJ, Brazil.
Int J Mol Sci. 2022 Nov 16;23(22):14147. doi: 10.3390/ijms232214147.
Aldehydes, particularly acetaldehyde, are carcinogenic molecules and their concentrations in foodstuffs should be controlled to avoid upper aerodigestive tract (UADT) and liver cancers. Highly reactive, acetaldehyde forms DNA and protein adducts, impairing physiological functions and leading to the development of pathological conditions. The consumption of aged beer, outside of the ethanol metabolism, exposes habitual drinkers to this carcinogen, whose concentrations can be over-increased due to post-brewing chemical and biochemical reactions. Storage-related changes are a challenge faced by the brewing industry, impacting volatile compound formation and triggering flavor instability. Aldehydes are among the volatile compounds formed during beer aging, recognized as off-flavor compounds. To track and understand aldehyde formation through multiple pathways during beer storage, consequent changes in flavor but particularly quality losses and harmful compound formation, this systematic review reunited data on volatile compound profiles through gas chromatography analyses from 2011 to 2021. Conditions to avoid flavor instability and successful methods for reducing beer staling, and consequent acetaldehyde accumulation, were raised by exploring the dynamic conversion between free and bound-state aldehydes. Future research should focus on implementing sensory analyses to investigate whether adding aldehyde-binding agents, e.g., cysteine and bisulfite, would contribute to consumer acceptance, restore beer flavor, and minimize acetaldehyde-related health damage.
醛类,特别是乙醛,是致癌分子,其在食品中的浓度应加以控制,以避免上呼吸道(UADT)和肝癌。乙醛具有高度反应性,会形成 DNA 和蛋白质加合物,损害生理功能,导致病理状况的发展。除了乙醇代谢之外,陈啤酒的消费会使习惯性饮酒者接触到这种致癌物质,由于酿造后化学和生化反应,其浓度可能会过度增加。与储存相关的变化是酿造行业面临的一个挑战,会影响挥发性化合物的形成并引发风味不稳定。醛类是啤酒老化过程中形成的挥发性化合物之一,被认为是异味化合物。为了通过啤酒储存过程中的多种途径跟踪和了解醛类的形成,以及随之而来的风味变化、特别是质量损失和有害化合物的形成,本系统综述通过 2011 年至 2021 年的气相色谱分析汇集了关于挥发性化合物特征图谱的数据。通过探索游离态和结合态醛之间的动态转化,提出了避免风味不稳定和成功减少啤酒老化以及随之而来的乙醛积累的方法。未来的研究应侧重于实施感官分析,以调查添加醛结合剂(例如半胱氨酸和亚硫酸氢盐)是否有助于消费者接受、恢复啤酒风味并最大程度地减少与乙醛相关的健康损害。
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