Zou Jinpeng, Wu Wei, Wang Fang, Hou Kai
College of Management, Sichuan Agricultural University, Chengdu, Sichuan, China.
College of Agronomy, Sichuan Agricultural University, Chengdu, Sichuan, China.
Front Pharmacol. 2024 Sep 27;15:1461523. doi: 10.3389/fphar.2024.1461523. eCollection 2024.
In Tibetan dietary and folk medicine practices, is commonly used as an alternative to , and there is a prevailing belief that wild rhubarb should not be substituted by its cultivated counterpart. However, these traditions are not supported by scientific evidence, particularly concerning the differences in endogenous metabolites between cultivated and wild rhubarbs, as well as between officially recognized and non-official rhubarbs. These uncertainties have also been hindering the vertical integration development of the local rhubarb industry.
In this study, ultra-high performance liquid chromatography-quadrupole time-of-flight mass spectrometry (UHPLC-QTOFMS) and biostatistical analysis were employed to systematically and comprehensively investigate the chemical constituents of rhubarbs from various sources, focusing on the differences in metabolic components between cultivated and wild rhubarbs.
The metabolic differences in rhubarb from various varieties and environments are pronounced. Among them, 39 differential metabolites were identified between cultivated and wild . cultivated is rich in emodin, physcion, and rhapontigenin, whereas wild exhibits a higher concentration of rhaponticin and is particularly abundant in anthraquinone compounds. Additionally, 33 differential metabolites distinguished wild from wild , with being rich in stilbene derivatives and wild predominantly containing coumarins. The correlations among these differential metabolites have also been further explored and presented.
The metabolic disparities between cultivated and wild rhubarb varieties are substantial, with wild rhuabarb containing higher levels of effective components than its cultivated counterparts. However, wild varieties face issues with component instability and resource depletion, while cultivated varieties exhibit more stable effective components. Given these significant differences in metabolic components, it is essential to differentiate rhubarbs from various species and growing conditions to suit specific medicinal and dietary purposes effectively. This paper can lay a theoretical foundation for the vertical integration development of the rhubarb industry in Tibetan areas.
在藏药饮食和民间医药实践中,[具体植物名称1]通常被用作[具体植物名称2]的替代品,并且普遍认为野生大黄不应被其栽培品种所替代。然而,这些传统观念缺乏科学依据,特别是关于栽培大黄和野生大黄之间以及官方认可和非官方大黄之间内源性代谢物的差异。这些不确定性也一直阻碍着当地大黄产业的纵向一体化发展。
在本研究中,采用超高效液相色谱 - 四极杆飞行时间质谱(UHPLC - QTOFMS)和生物统计学分析,系统全面地研究了不同来源大黄的化学成分,重点关注栽培大黄和野生大黄之间代谢成分的差异。
不同品种和环境的大黄代谢差异显著。其中,在栽培[具体植物名称1]和野生[具体植物名称1]之间鉴定出39种差异代谢物。栽培[具体植物名称1]富含大黄素、大黄酚和土大黄苷元,而野生[具体植物名称1]则表现出较高浓度的土大黄苷,并且蒽醌类化合物含量特别丰富。此外,在野生[具体植物名称1]和野生[具体植物名称2]之间区分出33种差异代谢物,[具体植物名称1]富含芪类衍生物,野生[具体植物名称2]主要含有香豆素类。还进一步探索并展示了这些差异代谢物之间的相关性。
栽培大黄和野生大黄品种之间的代谢差异很大,野生大黄所含有效成分水平高于其栽培品种。然而,野生品种面临成分不稳定和资源枯竭的问题,而栽培品种的有效成分表现出更稳定的特性。鉴于代谢成分存在这些显著差异,有必要区分不同物种和生长条件下的大黄,以有效地适应特定的药用和饮食目的。本文可为藏区大黄产业的纵向一体化发展奠定理论基础。