数字农科院2.0

High-throughput lc-esi-ms/ms metabolomics approach reveals regulation of metabolites related to diverse functions in mature fruit of grafted watermelon

文献类型: 外文期刊

作者: Aslam Ali;Zhao Shengjie;Lu Xuqiang;He Nan;Zhu Hongju;Malik Aman Ullah;Azam Muhammad;Liu Wenge

作者机构:

关键词: Grafting; Metabolites; Watermelon

期刊名称: Biomolecules

ISSN: 2218-273X

年卷期: 2021 年 11 卷 5 期

页码:

收录情况: JCR(2021版)

摘要: Grafting has been reported as a factor regulating the metabolome of a plant. Therefore, a comprehensive metabolic profile and comparative analysis of metabolites were conducted from fully mature fruit of pumpkin-grafted watermelon (PGW) and a self-rooted watermelon (SRW). Widely targeted LC-ESI-MS/MS metabolomics approach facilitated the simultaneous identification and quantification of 339 metabolites across PGW and SRW. Regardless of grafting, delta-aminolevulinic acid hydrochloride, sucrose, mannose-6-phosphate (carbohydrates), homocystine, 2-phenylglycine, s-adenosyl-L-homocysteine (amino acids and derivatives), malic, azelaic, H-butanoic acid ethyl ester-hexoside isomer 1, (organic acids), MAG (18:3) isomer1, LysoPC 16:0, LysoPC 18:2 2n isomer (lipids) p-coumaric acid, piperidine, and salicylic acid-o-glycoside (secondary metabolites) were among the dominant metabolite. Dulcitol, mono-, and disaccharide sugars were higher in PGW, while polysaccharides showed complex behavior. In PGW, most aromatic and nitrogen-rich amino acids accumulated greater than 1.5-and 1-fold, respectively. Intermediates of the tricarboxylic acid cycle (TCA), stress-related metabolites, vitamin B5, and several flavonoids were significantly more abundant in PGW. Most lipids were also significantly higher in grafted watermelon. This is the first report providing a comprehensive picture of watermelon metabolic profile and changes induced by grafting. Hence, the untargeted high-throughput LC-ESI-MS/MS metabolomics approach could be suitable to provide significant differences in metabolite contents between grafted and ungrafted plants. © 2021 by the authors. Licensee MDPI, Basel, Switzerland. This article is an open access article distributed under the terms and conditions of the Creative Commons Attribution (CC BY) license (https:// creativecommons.org/licenses/by/ 4.0/).

分类号:

  • 相关文献

[1]Genome-Wide Identification Of Saur Genes I.n Watermelon (Citrullus Lanatus). Zhang, N, Huang, X, Bao, YN, Wang, B, Zeng, HX, Cheng, WS, Tang, M, Li, YH, Ren, J, Sun, YH. 2017

[2]Physio-anatomical study of polyploid watermelon grafted by different methods. Kaseb Mohamed Omar,Umer Muhammad Jawad,Mahmud Eftekhar,Anees Muhammad,Diao Weinan,Yuan Pingli,Zhu Hongju,Zhao Shengjie,Lu Xuqiang,He Nan,El-Remaly Eman,Liu Wenge. 2021

[3]Genome Duplication Improves The Resistance O.f Watermelon Root To S alt Stress. Zhu, HJ, Zhao, SJ, Lu, XQ, He, N, Gao, L, Dou, JL, Bie, ZL, Liu, WG. 2018

[4]Comparative Metabolomic Profiling of Citrullus spp. Fruits Provides Evidence for Metabolomic Divergence during Domestication. Pingli Yuan,Nan He,Muhammad Jawad Umer,Shengjie Zhao,Weinan Diao,Hongju Zhu,Junling Dou,Mohamed Omar Kaseb,Hanhui Kuang,Xuqiang Lu,Wenge Liu. 2021

[5]Non-Targeted Metabolomic Analysis Based On U.ltra-High-Performance Liquid Chromatography Quadrupole T ime-Of-Flight Tandem Mass Spectrometry Reveals The Effects Of Grafting On Non-Volatile Metabolites In Fresh Tea Leaves (Camellia Sinensis L.). Lu, Meiling,Ma, Chengying,Miao, Aiqing,Chen, Wei,Guo, Weiqing,Li, Junxing,Qiao, Xiaoyan,Qi, Dandan. 2019

[6]Grafting helps improve photosynthesis and carbohydrate metabolism in leaves of muskmelon. Liu, Yi-Fei,Qi, Hong-Yan,Qi, Ming-Fang,Xu, Chuan-Qiang,Li, Yan,Li, Tian-Lai,Bai, Chun-Ming,Hao, Jing-Hong,Hao, Jing-Hong.

[7]Transcriptome Analysis of the Effects of Grafting Interstocks on Apple Rootstocks and Scions. Qingshan Li,Yuan Gao,Kun Wang,Jianrong Feng,Simiao Sun,Xiang Lu,Zhao Liu,Deying Zhao,Lianwen Li,Dajiang Wang. 2023

[8]Rootstock-scion interactions affect fruit flavor in grafted tomato. Zhou Z.,Yuan Y.,Wang K.,Wang H.,Huang J.,Yu H.,Cui X.. 2022

[9]A method for simultaneously monitoring phloem and xylem reconnections in grafted watermelon seedlings. Jianuo Xu,Xiaoyang Wei,Mu Xiong,Ting Zhang,Changjin Liu,Zhilong Bie,Yuan Huang. 2022

[10]The Formation of Fruit Quality in Cucumis sativus L.. Juping Zhang,Shengjun Feng,Jing Yuan,Chen Wang,Tao Lu,Huasen Wang,Chao Yu. 2021

[11]Harnessing Epigenetics through Grafting: Revolutionizing Horticultural Crop Production. Jin, Qiang,Chachar, Muzafaruddin,Ahmed, Nazir,Zhang, Pingxian,Chachar, Zaid,Geng, Yuke,Guo, Dayong,Chachar, Sadaruddin. 2023

[12]Free-radical-induced grafting of rice starch with gallic acid and evaluation of the reaction products' ability to stabilize Pickering emulsions. Jiahui Wang,Hong Feng,Rui Liu,Qingyun Lyu,Lijie Zhu,Lei Chen,Xianhui Chang,Gang Liu,Wenping Ding. 2024

[13]Improvement of plant tolerance to salt stress by GhRL192 mRNA through long-distance movement. Xinjie Zhang,Wenqian Liu,Tianen Zhang,Jinzhu Li,Jie He,Yuanyuan Liu,Lu Yang,Yuan Wang,Jun Peng,Zhanshuai Li. 2025

[14]Genome-Wide Analysis of the ATGs Family in Watermelon and the Involvement of ATG8s in Graft Union Formation. Fei Ding,Siqi Cheng,Shaoshuai Fan,Xiulan Fan,Xiaonuan Chen,Jianan Zhang,Yixin Zhang,Yansu Li,Li Miao. 2025

[15]Cucurbita ficifolia Rootstock Enhances Resistance to Low-Temperature Stress in Cucumber. Haojun Xiao,Wenxin Deng,Bilal Ahmad,Chunmei Guo,Songmei Shi,Shuilian He,Zheng’an Yang. 2025

[16]Efficient Removal Of Metolachlor And B.acterial Community Of Biofilm I n Bioelectrochemical Reactors. Weng, Liping,Zhao, Xiaodong,Yu, Binbin,Zhang, Xiaolin,Li, Yongtao,Li, Xiaojing,Li, Yongtao. 2019

[17]Metabolic Variation And Cooking Qualities O.f Millet Cultivars Grown B oth Organically And Conventionally. Liang, Kehong,Zhu, Hong,Zhu, Dazhou,Lu, Lingang,Lu, Lingang,Liang, Kehong,Zhu, Dazhou,Zhang, Min,Liang, Shan,Liu, Peng,Zhang, Min,Zhu, Hong,Liu, Peng,Liang, Shan. 2018

[18]Dynamic Metabolic Profiling In Vegetable S.oybean Seed Development. Zhang, Yumei,Hu, Runfang,Chen, Yuhua,Lin, Guoqiang. 2018

[19]Comparison Of Metabolites In Juice, S.eed And Peel Of S ea Buckthorn (Hippophae Rhamnoides L. Subsp. Sinensis). Wang, Meixia,Mu, Zhixin,Deng, Yan,Zhang, Hong,Zhao, Li,Zhao, Lijuan,Wang, Chuangyun,Zhang, Jianhua,Lei, Menglin,Wang, Chuangyun. 2019

[20]Effects Of Tetracycline On Growth, O.xidative Stress Response, And M etabolite Pattern Of Ryegrass. Liu, Zunchun,Mi, Zhaorong,Li, Xinzheng,Li, Yang,Zhou, Junguo,Chen, Xuejin,Li, Qingfei,Guo, Weili,Pan, Feifei,Jiang, Lina,Wu, Zhineng,Liang, Yueping,Ge, Shidong,Huang, Hua,Ge, Shidong,Zhang, Zhen,Wang, Jialiang,Tang, Yingying,Wu, Mengdan,Yang, Linru,Liu, Zhenwei,Chen, Xuejin,Guo, Weili,Liu, Zhenwei,Zhang, Zhen,Li, Qingfei,Pan, Feifei,Han, Tao,Jiang, Lina,Mi, Zhaorong,Zhang, Li,Liu, Zunchun,Yang, Linru,Wu, Mengdan,Zhang, Li,Han, Tao,Li, Xinzheng,Li, Yang,Zhou, Junguo,Tang, Yingying,Wang, Jialiang. 2019

作者其他论文 更多>>