Biology and Geology Sciences Department, Faculty of Education, University of Alexandria, EgyptAlexandria, El-Shatby, 21526, Egypt.
Nucleic Acids Research Department, Genetic Engineering & Biotechnology Research Institute (GEBRI), City for Scientific Research and Technological Applications, Borg El-Arab, Alexandria, 21933, Egypt.
J Plant Res. 2023 May;136(3):305-322. doi: 10.1007/s10265-023-01442-y. Epub 2023 Feb 28.
The current study examined the phylogenetic pattern of medicinal species of the family Apiaceae based on flavonoid groups production, as well as the overall mechanism of the key genes involved in flavonol and flavone production. Thirteen species of the family Apiaceae were used, including Eryngium campestre from the subfamily Saniculoideae, as well as Cuminum cyminum, Carum carvi, Coriandrum sativum, Apium graveolens, Petroselinum crispum, Pimpinella anisum, Anethum graveolens, Foeniculum vulgare, Daucus carota, Ammi majus, Torilis arvensis, and Deverra tortuosa from the subfamily Apioideae. The seeds were cultivated, and the leaves were collected to estimate flavonoids and their groups, physiological factors, transcription levels of flavonol and flavone production-related genes. The phylogenetic relationship between the studied species was established using the L-ribosomal 16 (rpl16) chloroplast gene. The results revealed that the studied species were divided into two patterns: six plant species, E. campestre, C. carvi, C. sativum, P. anisum, An. graveolens, and D. carota, contained low content of flavonoids, while the other seven species had high content. This pattern of flavonoids production coincided with the phylogenetic relationships between the studied species. In contrast, the phylogeny of the flavonol and flavone synthase genes was incompatible with the quantitative production of their products. The study concluded that the increment in the production of flavonol depends on the high expression of chalcone synthase, chalcone isomerase, flavanone 3 hydroxylase, flavonol synthase, the increase of Abscisic acid, sucrose, and phenyl ammonia lyase, while flavone mainly depends on evolution and on the high expression of the flavone synthase gene.
本研究基于类黄酮组的产生,以及涉及黄酮醇和黄酮类生产的关键基因的整体机制,研究了伞形科药用物种的系统发育模式。使用了伞形科的 13 个物种,包括 Saniculoideae 亚科的 Eryngium campestre,以及 Cuminum cyminum、Carum carvi、Coriandrum sativum、Apium graveolens、Petroselinum crispum、Pimpinella anisum、Anethum graveolens、Foeniculum vulgare、Daucus carota、Ammi majus、Torilis arvensis 和 Deverra tortuosa。种子被培育,叶子被收集,以估计类黄酮及其组、生理因素、黄酮醇和黄酮类生产相关基因的转录水平。使用核糖体 16(rpl16)叶绿体基因建立了研究物种的系统发育关系。结果表明,研究的物种分为两种模式:六种植物物种,E. campestre、C. carvi、C. sativum、P. anisum、An. graveolens 和 D. carota,含有低含量的类黄酮,而其他七种物种则含有高含量的类黄酮。这种类黄酮的产生模式与研究物种之间的系统发育关系一致。相比之下,类黄酮醇和黄酮合酶基因的系统发育与它们产物的定量产生不一致。研究得出结论,类黄酮醇产量的增加取决于查尔酮合酶、查尔酮异构酶、黄烷酮 3 羟化酶、类黄酮醇合酶的高表达,以及脱落酸、蔗糖和苯丙氨酸解氨酶的增加,而黄酮主要依赖于进化和黄酮合酶基因的高表达。