M. R. D'Aimmo, Maria Satti, Donatella Scarafile, M. Modesto, Stefano Pascarelli, Simone Andrea Biagini, D. Luiselli, P. Mattarelli, Thomas Andlid
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引用次数: 0
摘要
叶酸(所有具有生物活性的维生素 B9 的总称)在进化过程中高度保守的一碳(1C)代谢中发挥着至关重要的作用,这一网络包括 DNA 和蛋白质合成以及大分子甲基化等中心反应。叶酸在反应物之间传递甲基和甲酰基等 1C 单位。植物、藻类、真菌和许多细菌可以自然产生叶酸,而包括人类在内的动物则必须从外界获取叶酸。然而,对于人类来说,叶酸缺乏是一个普遍存在的问题。双歧杆菌是人类和许多动物微生物组的重要组成部分,可为宿主提供各种健康益处,如产生叶酸。本综述重点介绍双歧杆菌和叶酸代谢,以及目前对不同双歧杆菌物种中完整叶酸生物合成所需基因分布情况的了解。基于叶酸营养型益生菌的生物技术旨在制造富含叶酸的发酵产品,或设计能在结肠中合成叶酸的益生菌补充剂,从而改善整体健康。因此,双歧杆菌(单独或与其他微生物一起)未来可能有助于减少老年人、育龄妇女和低收入国家人口等弱势人群中普遍存在的叶酸缺乏症。
Folate-producing bifidobacteria: metabolism, genetics, and relevance
Folate (the general term for all bioactive forms of vitamin B9) plays a crucial role in the evolutionary highly conserved one-carbon (1C) metabolism, a network including central reactions such as DNA and protein synthesis and methylation of macromolecules. Folate delivers 1C units, such as methyl and formyl, between reactants. Plants, algae, fungi, and many bacteria can naturally produce folate, whereas animals, including humans, must obtain folate from external sources. For humans, folate deficiency is, however, a widespread problem. Bifidobacteria constitute an important component of human and many animal microbiomes, providing various health advantages to the host, such as producing folate. This review focuses on bifidobacteria and folate metabolism and the current knowledge of the distribution of genes needed for complete folate biosynthesis across different bifidobacterial species. Biotechnologies based on folate-trophic probiotics aim to create fermented products enriched with folate or design probiotic supplements that can synthesize folate in the colon, improving overall health. Therefore, bifidobacteria (alone or in association with other microorganisms) may, in the future, contribute to reducing widespread folate deficiencies prevalent among vulnerable human population groups, such as older people, women at child-birth age, and people in low-income countries.