Chen Duo, Xiao Yixin, Zheng Xuehai, Sun Huamiao, Zhang Cifeng, Zhu Jinmao, Xue Ting
The Public Service Platform for Industrialization Development Technology of Marine Biological Medicine and Products of the Department of Natural Resources, Fujian Key Laboratory of Special Marine Bioresource Sustainable Utilization, Southern Institute of Oceanography, College of Life Sciences, Fujian Normal University, Fuzhou, China.
Front Plant Sci. 2025 Mar 4;16:1525226. doi: 10.3389/fpls.2025.1525226. eCollection 2025.
, an economically important species known for its high flavonoid content, has potential for industrial applications. Understanding the seasonal dynamics and molecular regulation of flavonoid biosynthesis in this species is crucial for optimizing its production.
We conducted an integrated analysis of transcriptomic and metabolomic data to identify key genes involved in flavonoid biosynthesis and regulation. Seasonal variation in flavonoid content and gene expression was examined, with a focus on the genes involved in the flavonoid synthesis pathway and their correlation with flavonoid levels.
Flavonoid content peaked in August and declined towards November, with quercetin and kaempferol glycosides being the most abundant compounds. Pearson correlation analysis revealed significant relationships between the functional genes of the flavonoid synthesis pathway and flavonoid content. Seasonal variations in the expression of key biosynthetic genes () and regulatory transcription factors () were strongly correlated with flavonoid levels, particularly under environmental stress.
These findings provide insights into the genetic regulation of flavonoid biosynthesis in and highlight the importance of seasonal and environmental factors. This knowledge has practical implications for industrial breeding and biotechnological applications, particularly in enhancing the functional properties of for industrial use. Our study establishes a foundation for future research aimed at optimizing flavonoid production in this species and exploring its potential for bioactive compound production.
是一种经济上重要的物种,以其高黄酮含量而闻名,具有工业应用潜力。了解该物种中黄酮生物合成的季节性动态和分子调控对于优化其产量至关重要。
我们对转录组和代谢组数据进行了综合分析,以鉴定参与黄酮生物合成和调控的关键基因。研究了黄酮含量和基因表达的季节性变化,重点关注参与黄酮合成途径的基因及其与黄酮水平的相关性。
黄酮含量在8月达到峰值,并在11月逐渐下降,槲皮素和山奈酚糖苷是最丰富的化合物。Pearson相关性分析揭示了黄酮合成途径的功能基因与黄酮含量之间的显著关系。关键生物合成基因( )和调控转录因子( )表达的季节性变化与黄酮水平密切相关,尤其是在环境胁迫下。
这些发现为 中黄酮生物合成的遗传调控提供了见解,并突出了季节性和环境因素的重要性。这些知识对工业育种和生物技术应用具有实际意义,特别是在增强 用于工业用途的功能特性方面。我们的研究为未来旨在优化该物种黄酮产量并探索其生物活性化合物生产潜力的研究奠定了基础。