数字农科院2.0

Multi-omics reveal the molecular mechanisms of Sodium Nitrophenolate in enhancing cold tolerance through hormonal and antioxidant pathways in cucumber

文献类型： 外文期刊

作者： Mengdi Zhou;Qinghua Di;Yan Yan;Chaoxing He;Jun Wang;Yansu Li;Xianchang Yu;Mintao Sun

作者机构：

关键词： Cold tolerance;Cucumber;Metabolome;Sodium nitrophenolate;Transcriptome

期刊名称： Plant Physiology and Biochemistry

ISSN： 0981-9428

年卷期： 2025 年 223 卷

页码：

收录情况： SCIE（2025版）

摘要： Sodium nitrophenate (CSN) enhanced cold tolerance of cucumber. However, at the omics-level, the molecular mechanism of CSN to cold stress remains unclear. Here, we found that CSN was comparable to abscisic acid and much stronger than 2, 4-epibrassinolide (EBR) in enhancing cold tolerance. RNA-seq indicated that CSN regulated the brassinolides (BR) and cytokinin (CK) synthesis in the late stage of cold stress (LS-CS). CSN reduced the source of BR synthesis, accelerated the conversion of intermediate substances to BR and the deactivation of BR. While, CSN accelerated CK synthesis and CK deactivation by cytokinin dehydrogenase. Hormone content determination showed that CSN increased BR and decreased CK contents during most time-points of cold stress. Kinds of hormone signaling genes at LS-CS were activated by CSN, which may be due to changes in BR and CK contents. CSN also enhanced the expression of 90 % phenylalanine ammonia-lyase genes, participated in phenylpropanoid biosynthesis, at LS-CS. Genes of phenylpropanoid biosynthesis pathway and hormones signal were co-expression during cold stress. The metabolome also showed that CSN participated phenylpropanoid biosynthesis at LS-CS too. However, as for lipid metabolome, CSN up-regulated anthocyanin, flavones and flavonols metabolism at the early stage of cold stress. The autumn and winter field yield test showed that CSN increase cucumber yield by approximately 17.67 % and economic income by 207.67 dollars/667 m2. Collectedly, CSN may regulate lipid metabolism and hormone signaling mediated antioxidant pathways to enhance cold tolerance in the early and late stages of cold stress, respectively.

分类号：

  • 相关文献

[1]Sodium nitrophenolate mediates brassinosteroids signaling to enhance cold tolerance of cucumber seedling. Yueshan J.,Sun M.,Yansu L.,Xiaojie F.,Menglu L.,Aokun S.,Chaoxing H.,Yan Y.,Jun W.,Xianchang Y.. 2024

[2]Genome-wide gene expression profiling of introgressed indica rice alleles associated with seedling cold tolerance improvement in a japonica rice background. Zhang, Fan,Huang, Liyu,Wang, Wensheng,Zhao, Xiuqin,Zhu, Linghua,Fu, Binying,Li, Zhikang,Zhang, Fan,Huang, Liyu,Wang, Wensheng,Zhao, Xiuqin,Zhu, Linghua,Fu, Binying,Li, Zhikang,Li, Zhikang. 2012

[3]Higher Phytohormone Contents and Weaker Phytohormone Signal Transduction Were Observed in Cold-Tolerant Cucumber. Radwa Salah,Rui Jin Zhang,Shi Wei Xia,Shan Shan Song,Qian Hao,Mustafa H. Hashem,Huan Xiu Li,Yu Li,Xi Xiang Li,Yun Song Lai. 2022

[4]Comparative Transcriptome Analysis of Cold Tolerance Mechanism in Honeybees (Apis mellifera sinisxinyuan). Jinqiong Shan,Ruiyi Cheng,Tuohudasheng Magaoya,Yujie Duan,Chao Chen. 2024

[5]Multi-omics integration to explore the molecular insight into the volatile organic compounds in watermelon. Chengsheng Gong,Nan He,Hongju Zhu,Muhammad Anees,Xuqiang Lu,Wenge Liu. 2023

[6]Defensive Resistance of Cowpea Vigna unguiculata Control Megalurothrips usitatus Mediated by Jasmonic Acid or Insect Damage. Tao Li,Mingyue Feng,Yuanming Chi,Xing Shi,Zilin Sun,Zhen Wu,Aomei Li,Wangpeng Shi. 2023

[7]Transcriptomic and metabolomic analyses reveal that exogenous strigolactones alleviate the response of melon root to cadmium stress. Chen X.,Shi X.,Ai Q.,Han J.,Wang H.,Fu Q.. 2022

[8]Transcriptome Co-expression Network and Metabolome Analysis Identifies Key Genes and Regulators of Proanthocyanidins Biosynthesis in Brown Cotton. Zhenzhen Wang,Xiaomeng Zhang,Shoupu He,Abdul Rehman,Yinhua Jia,Hongge Li,Zhaoe Pan,Xiaoli Geng,Qiong Gao,Liru Wang,Zhen Peng,Xiongming Du. 2022

[9]Transcriptomic and Metabolomic Analysis of Wheat Kernels in Response to the Feeding of Orange Wheat Blossom Midges (Sitodiplosis mosellana) in the Field. Qian Wang,Xiaobei Liu,Huan Liu,Yu Fu,Yumeng Cheng,Lijiao Zhang,Wangpeng Shi,Yong Zhang,Julian Chen. 2022

[10]Integrated Transcriptome and Metabolome Dissecting Interaction between Vitis vinifera L. and Grapevine Fabavirus. Baodong Zhang,Mengyan Zhang,Xiaojun Jia,Guojun Hu,Fang Ren,Xudong Fan,Yafeng Dong. 2023

[11]Integrated Metabolome and Transcriptome Analysis Unveils the Underlying Molecular Response of Panax ginseng Plants to the Phytophthora cactorum Infection. Hong Kan,Shuai Qu,Kai Dong,Shihan Wang,Chen Xu,Yingping Wang,Shuang Hua. 2023

[12]Integrated metabolomics and transcriptomics insights on flavonoid biosynthesis of a medicinal functional forage, Agriophyllum squarrosum (L.), based on a common garden trial covering six ecotypes. Tingzhou Fang,Shanshan Zhou,Chaoju Qian,Xia Yan,Xiaoyue Yin,Xingke Fan,Pengshu Zhao,Yuqiu Liao,Liang Shi,Yuxiao Chang,Xiao Fei Ma. 2022

[13]Multi-omics analyses of 398 foxtail millet accessions reveal genomic regions associated with domestication, metabolite traits, and anti-inflammatory effects. Xukai Li,Jianhua Gao,Jingyi Song,Kai Guo,Siyu Hou,Xingchun Wang,Qiang He,Yanyan Zhang,Yakun Zhang,Yulu Yang,Jiaoyan Tang,Hailang Wang,Staffan Persson,Mingquan Huang,Lishuai Xu,Linlin Zhong,Dongqin Li,Yongming Liu,Hua Wu,Xianmin Diao,Pe. 2022

[14]Integrative analysis of metabolome and genome-wide transcriptome reveal the flavor changes in apple (Malus pumila Mill) after the novel acaricide cyflumetofen application. Minmin Li,Lin Li,Zhiqiang Kong,Noel Gregoire,Rui Quan,Zisheng Luo,Xingyu Lin,Jesus Simal-Gandara,Bei Fan,Fengzhong Wang. 2023

[15]Comparison of transcriptome and metabolome analysis revealed differences in cold resistant metabolic pathways in different apple cultivars under low temperature stress. Xu, Gongxun,Li, Lijie,Zhou, Jia,Lyu, Deguo,Zhao, Deying,Qin, Sijun. 2023

[16]Combining quantitative trait locus mapping with multiomics profiling reveals genetic control of corn leaf aphid (Rhopalosiphum maidis) resistance in maize. Wang, Tengyue,Wang, Kaiji,Wang, Chuanhong,Zhao, Yibing,Tao, Zhen,Li, Junyao,Wang, Lei,Shi, Jian,Huang, Shijie,Xie, Chuanxiao,Li, Peijin. 2023

[17]Editorial: Omics data-based identification of plant specialized metabolic genes. Peipei Wang,Pengxiang Fan,Yan Bao,Wei Li,Li Wang. 2023

[18]Metabolome and Transcriptome Analyses Reveal the Differences in the Molecular Mechanisms of Oat Leaves Responding to Salt and Alkali Stress Conditions. Bai, Jianhui,Lu, Peina,Li, Feng,Li, Lijun,Yin, Qiang. 2023

[19]Metabolome and Transcriptome Integration Reveals Insights Into Flavor Formation of ‘Crimson’ Watermelon Flesh During Fruit Development. Chengsheng Gong,Weinan Diao,Hongju Zhu,Muhammad Jawad Umer,Shengjie Zhao,Nan He,Xuqiang Lu,Pingli Yuan,Muhammad Anees,Dongdong Yang,M. O. Kaseb,Wenge Liu. 2021

[20]The multi-omics basis of potato heterosis. Dawei Li,Xiaoyue Lu,Yanhui Zhu,Jun Pan,Shaoqun Zhou,Xinyan Zhang,Guangtao Zhu,Yi Shang,Sanwen Huang,Chunzhi Zhang. 2022

作者其他论文 更多>>