Zhang Yinping, Chen Ruirui, Liu Yujun, Xu Shuwen, Gao Shuguang, Zhang Haiyang, Miao Hongmei, Qin Lingling, Zhou Xiangyu, Thakur Kiran, Li Cheng, Li Juan, Wei Pengcheng, Wei Zhao-Jun
Anhui Academy of Agricultural Sciences, Crop Research Institute, Hefei 230031, Anhui province, PR China.
Anhui Promotion Center for Technology Achievements Transfer, Anhui Academy of Science and Technology, Hefei 230031, Anhui province, PR China.
Food Chem (Oxf). 2024 Nov 26;9:100231. doi: 10.1016/j.fochms.2024.100231. eCollection 2024 Dec 30.
The loss of sesame capsule seed prior to harvest poses a significant economical challenge in mechanized production. The metabolites involved in capsule closure are still unclear. Using comparative metabolome and transcriptome analysis, this work investigated the molecular regulation and enrichment pathways in two sesame types of indehiscent capsule WanZhi28 (ND) and dehiscent capsule WanZhi2 (WZ2). The findings demonstrated that genes and metabolites were significantly enriched in lignin synthesis-related pathways. Furthermore, data suggests that lipid and sugar metabolism may have an impact on capsule closure. Apart from its function in cell signaling, the latter may contribute to the glycosylation of lignin monomers, while the former may provide ATP for cellular microtubule movement. This work concurrently focused on a large number of differentially expressed transcription factors linked to the sesame capsule's anti-cleft mechanism, providing new evidence for the discovery and use of functional markers and genes for capsule dehiscence. The identification of key pathways and regulatory mechanisms offers valuable information for developing strategies to mitigate seed loss during harvest, ultimately contributing to more efficient and profitable sesame production.
收获前芝麻蒴果种子的损失在机械化生产中构成了重大的经济挑战。参与蒴果闭合的代谢产物仍不清楚。本研究通过比较代谢组学和转录组分析,探究了两种芝麻类型(不裂蒴品种皖芝28(ND)和裂蒴品种皖芝2(WZ2))中的分子调控和富集途径。研究结果表明,基因和代谢产物在木质素合成相关途径中显著富集。此外,数据表明脂质和糖代谢可能对蒴果闭合有影响。除了在细胞信号传导中的作用外,后者可能有助于木质素单体的糖基化,而前者可能为细胞微管运动提供ATP。本研究同时关注了大量与芝麻蒴果抗裂机制相关的差异表达转录因子,为发现和利用蒴果开裂的功能标记和基因提供了新证据。关键途径和调控机制的鉴定为制定减少收获期间种子损失的策略提供了有价值的信息,最终有助于实现更高效、更盈利的芝麻生产。