A comprehensive study of the physiology and chemistry of tea withering based on untargeted metabolomic, transcriptomic, and biochemical analyses
文献类型: 外文期刊
第一作者: Li, Yan
作者: Li, Yan;Chen, Yao;Pan, Ke;Mi, Xiaozeng;Qiao, Dahe;Chen, Juan;Chen, Zhengwu;Shen, Qiang;Zhang, Xiaoqin;Dai, Xinlong
作者机构:
关键词: Tea flavor; Withering; Transcriptomics; Metabolomics; Biochemical analysis
期刊名称:FOOD CHEMISTRY ( 影响因子:9.8; 五年影响因子:9.7 )
ISSN: 0308-8146
年卷期: 2025 年 464 卷
页码:
收录情况: SCI
摘要: Withering is an important process for achieving high-quality flavor in tea. In this study, histological, metabolomics, transcriptomics, and biochemical analyses were combined to comprehensively explore the accumulation and molecular regulatory profiles of quality metabolites during tea withering. The results of tissue staining indicated that as the water content decreased, the vitality of the nucleus weakened, cytoplasmic content increased, flavone content decreased, and proteins degraded. Omics analysis showed that the total content of soluble sugars, free amino acids, and terpenoids increased, whereas that of catechins decreased significantly, although the caffeine content barely changed. Biochemical analysis revealed that the translated products of genes CSA010827 and CSA001819 catalyzed the biosynthesis of galactose and flavanol 3-O-glycosides, respectively, thereby increasing the content of soluble sugars and contributing to the astringent taste. Overall, by combining omics with histological and biochemical analyses, we revealed the metabolic profile and possible molecular mechanisms during the withering process of tea.
分类号:
- 相关文献
作者其他论文 更多>>
-
Integration of transcriptome, histopathology, and physiological indicators reveals regulatory mechanisms of largemouth bass ( Micropterus salmoides) in response to carbonate alkalinity stress
作者:Hua, Jixiang;Xi, Bingwen;Qiang, Jun;Hua, Jixiang;Tao, Yifan;Lu, Siqi;Li, Yan;Dong, Yalun;Jiang, Bingjie;Xi, Bingwen;Qiang, Jun
关键词:Micropterus salmoides; Carbonate alkalinity stress; Tissue damage; Serum biological chemistry; RNA-seq
-
Identification of the MAP4K gene family reveals GhMAP4K13 regulates drought and salt stress tolerance in cotton
作者:Zeng, Qing;Wang, Junjuan;Wang, Shuai;Lu, Xuke;Li, Yan;Ye, Wuwei;Yin, Zujun;Peng, Fanjia;Bakhsh, Allah;Qaraevna, Bobokhonova Zebinisso;Ye, Wuwei;Yin, Zujun
关键词:
-
Effect of combined nitrogen and phosphorus fertilization on summer maize yield and soil fertility in coastal saline-alkali land
作者:Ma, Changjian;Wang, Yue;Liu, Lining;Wang, Xuejun;Sun, Zeqiang;Li, Yan;Ma, Changjian;Wang, Yue;Wu, Wenbiao;Hou, Peng;Li, Bowen;Yuan, Huabin
关键词:Grain yield; Biomass yield; Fertilizer physiological efficiency; Coastal saline-alkali land
-
Comparative genomic analysis reveals the difference of NLR immune receptors between anthracnose-resistant and susceptible sorghum cultivars
作者:Zhang, Ji-Wei;Li, Jin-Yang;Yu, Zhi-Fan;Chang, Xin-Ya;Han, Jun-Ru;Xia, Jing-Yang;Kami, Yam Bahadur;Wang, He;Li, Yan;Wang, Wen-Ming;Sun, Yuan-Tao;Ni, Xian-Lin;Li, Ling;Wang, Song-Tao
关键词:Sorghum; Anthracnose; NLR receptor; Colletotrichum sublineola; Genetic variation; Differential gene expression
-
The role of the nitrate transporter NRT1.1 in plant iron homeostasis and toxicity on ammonium
作者:Li, Guangjie;Zhang, Lin;Wang, Yanqin;Li, Yan;Wang, Zhaoyue;Shi, Weiming;Kronzucker, Herbert J.;Kronzucker, Herbert J.;Chen, Gui
关键词:Ammonium toxicity; Iron; Nitrate; NRT1.1; Root growth
-
Context-dependent response of crop pests to landscape composition
作者:Yang, Long;Pan, Yunfei;Wyckhuys, Kris A. G.;Li, Minlong;Wang, Kaitao;Liu, Bing;Liu, Yangtian;Jia, Shuangshuang;Li, Qian;Li, Yan;Lu, Yanhui;Wyckhuys, Kris A. G.;Desneux, Nicolas
关键词:Agroecology; context dependency; ecological based pest management; ecological intensification; host quality
-
TaSnRK3.23B, a CBL-interacting protein kinase of wheat, confers drought stress tolerance by promoting ROS scavenging in Arabidopsis
作者:Dong, Feiyan;Liu, Yide;Zhang, Huadong;Li, Yaqian;Chen, Sheng;Wang, Shuailei;Zhu, Zhanwang;Liu, Yike;Song, Jinghan;Li, Yan
关键词:Wheat;
TaSnRK3.23B ; Ectopic expression; Drought stress; CBL proteins