数字农科院2.0

Genome-wide analysis of CHYR gene family and BnA03.CHYR.1 functional verification under salt stress in Brassica napus L.

文献类型： 外文期刊

作者： Yanli Guo;Qingxiao Ren;Manman Song;Xiangxiang Zhang;Heping Wan;Fei Liu

作者机构：

关键词： Abiotic stress;BnA03.CHYR.1;Brassica napus;CHYR;Ubiquitin E3 ligase

期刊名称： BMC Plant Biology

ISSN： 1471-2229

年卷期： 2025 年 25 卷 1 期

页码：

收录情况： SCIE（2025版）

摘要： Brassica napus, an allotetraploid used as an oilseed crop, vegetable, or feed crop, possesses significant economic and medicinal value. Although the CHYR gene family has been functionally characterised in various aspects of plant growth, development, and stress responses, its systematic investigation in B. napus is lacking. In contrast to the seven CHYR genes (AtCHYR1-AtCHYR7) identified in Arabidopsis thaliana, nine CHYR orthologues were detected in B. rapa and B. oleracea, while 24 were found in B. napus. This discrepancy is consistent with the established triplication events that occurred during the Brassicaceae family evolution. Phylogenetic analysis indicated that the 24 CHYRs identified in B. napus could be categorised into three distinct groups. Among these, 24 BnCHYRs contained conserved domains, including the CHY-zinc finger, C3H2C3-type RING finger and zinc ribbon domains. Group III members featured an additional one to three hemerythrin domains in their N-terminal regions. Each BnCHYR group shared similar patterns in the distribution of conserved domains. Our results revealed that the selected eight BnCHYRs were up-regulated following heat treatment, exhibiting varying expression patterns in response to salt, cold, and drought stress during the seedling stage. Expression analysis revealed that several BnCHYRs were significantly induced by one or more abiotic stressors. BnA03.CHYR.1 was significantly induced by salt and heat stress and repressed by polyethylene glycol treatment. BnA03.CHYR.1 was localised in the nucleus and cytoplasm, and its overexpression in A. thaliana enhanced tolerance to salt stress. Our results provide a comprehensive analysis of the CHYR family in B. napus, elucidating the biological role of BnA03.CHYR.1 in adaptive responses of plants to salt stress.

分类号：

  • 相关文献

[1]Differential alternative splicing genes and isoform co-expression networks of Brassica napus under multiple abiotic stresses. Lingli Yang,Li Yang,Chuanji Zhao,Jie Liu,Chaobo Tong,Yuanyuan Zhang,Xiaohui Cheng,Huifang Jiang,Jinxiong Shen,Meili Xie,Shengyi Liu. 2022

[2]Genome-wide identification and functional analysis of cupin_1 domain-containing members involved in the responses to Sclerotinia sclerotiorum and abiotic stress in Brassica napus. He, Yizhou,Li, Yan,Bai, Zetao,Xie, Meili,Zuo, Rong,Liu, Jie,Xia, Jing,Cheng, Xiaohui,Liu, Yueying,Tong, Chaobo,Zhang, Yuanyuan,Liu, Shengyi. 2022

[3]Genome-Wide Identification and Analysis of the Plant Cysteine Oxidase (PCO) Gene Family in Brassica napus and Its Role in Abiotic Stress Response. Xiaohua Bian,Yifan Cao,Ximin Zhi,Ni Ma. 2023

[4]Proteome-wide identification of methylglyoxalated proteins in rapeseed (Brassica napus L.). Fu Z.-W.,Fan S.-H.,Liu H.-F.,Hua W.. 2024

[5]Identification and expression analysis of TALE superfamily genes explore their key roles in response to abiotic stress in Brassica napus. Meili Xie,Xiaojuan Zhang,Kexin Liu,Zhixian Qiao,Xiaohui Cheng. 2025

[6]A VQ-motif-containing protein fine-tunes rice immunity and growth by a hierarchical regulatory mechanism. Hao Z.,Tian J.,Fang H.,Fang L.,Xu X.,He F.,Li S.,Xie W.,Du Q.,You X.,Wang D.,Chen Q.,Wang R.,Zuo S.,Yuan M.,Wang G.-L.,Xia L.,Ning Y.. 2022

[7]Genome-Wide Exploration And Characterization Of M.ir172/Euap2 Genes In Brassica N apus L. For Likely Role In Flower Organ Development. Gao, Yumin,Ping, Xiaoke,Tan, Yingchao,Wang, Jia,Xu, Xinfu,Wang, Tengyue,Lu, Kun,Cao, Yanru,Jian, Hongju,Liu, Liezhao. 2019

[8]Physiological, Genomic And Transcriptomic Comparison O.f Two Brassica Napus C ultivars With Contrasting Cadmium Tolerance. Li, Shengting,Xiao, Zhongchun,Lu, Kun,Li, Jiana,Xiao, Zhongchun,Li, Jiana,Sun, Juanjuan,Meng, Hongjun,Lu, Kun,Li, Nannan,Wang, Shufeng,Li, Nannan,Luo, Feng,Zhang, Zhen. 2019

[9]Genome-Wide Association Study Reveals Both O.verlapping And Independent Genetic L oci To Control Seed Weight And Silique Length In Brassica Napus. Chen, Yangui,Cui, Yixin,Dong, Hongli,Fu, Ying,He, Yajun,He, Yan,Li, Jiana,Li, Jiana,Li, Yuzhen,Wan, Huafang,Lu, Kun,Liu, Zhi,Qian, Wei,Qian, Wei,Lu, Kun,Wei, Dayong,Tan, Chuandong,Wei, Shuai,Xiong, Qing. 2018

[10]Understanding The Resistance Mechanism In B.rassica Napus To Clubroot C aused By Plasmodiophora Brassicae. Chen, Guokang,Qian, Wei,Qian, Wei,Mei, Jiaqin,Wang, Jinhua,Wang, Jinhua,Mei, Jiaqin,Feng, Yuxia,Feng, Yuxia,Ma, Guanhua,Guo, Zhen,Zhang, Chunyu. 2019

[11]Genome-Wide Identification Of Oil Biosynthesis-Related L.ong Non-Coding Rnas In A llopolyploid Brassica Napus. Zhu, Qian-Hao,Zhu Xintian,Ye, Chuyu,Zhou, Longhua,Shen Enhui,Hua Shuijin,Liu, Qing,Fan, Longjiang,Chen, Xi,Chen, Hongyu. 2018

[12]Characterization Of The Main Magnesium T.ransporters Mediating Different Mg T ranslocation From Root To Shoot Between Mg-Tolerant And Mg-Sensitive Brassica Napus Cultivars Under Magnesium Deficiency Stress. Li, Nannan,Li, Jiana,Xiao, Zhongchun,Zhang, Zhen,Li, Jiana,Xiao, Zhongchun,Wang, Shufeng,Sun, Juanjuan,Li, Nannan,Li, Shengting,Luo, Feng. 2019

[13]Genome-Wide Identification And Comparative Expression P.rofile Analysis Of The L ong-Chain Acyl-Coa Synthetase (Lacs) Gene Family In Two Different Oil Content Cultivars Of Brassica Napus. Zhang, Liyuan,Zhang, Chao,Yang, Hong,Sun, Juanjuan,Xiao, Zhongchun,Li, Nannan,Zhao, Huiyan,Qu, Cunmin,Lu, Kun,Li, Jiana,Yang, Bo,Wei, Lijuan,Du, Hai,Wei, Lijuan,Lu, Kun,Zhang, Chao,Qu, Cunmin,Du, Hai,Li, Jiana,Yang, Bo,Xiao, Zhongchun,Li, Nannan,Wang, Shufeng,Zhao, Huiyan,Zhang, Liyuan,Yang, Hong. 2019

[14]Whole-Genome Resequencing Of A Worldwide C.ollection Of Rapeseed Accessions R eveals The Genetic Basis Of Ecotype Divergence. Yu, Hao,Yu, Hao,Wu, Linde,Yan, Tao,Zhou, Gang,Xuan, Lijie,Xu, Ying,Hua, Shuijin,Zhang, Guoping,Zheng, Hongkun,Hussain, Nazim,Chalhoub, Boulos,Wu, Dezhi,Chen, Xiaoyang,Maodzeka, Antony,Lohwasser, Ulrike,Li, Zhilan,Shamsi, Imran Haider,Zhu, Le,Jilani, Ghulam,Li, Xuming,Jiang, Lixi,Liang, Zhe,Liang, Zhe,Wang, Qian,Wang, Haoyi,Tang, Juan,Shen, Lisha,Shen, Lisha. 2019

[15]Evaluation Of Oilseed Rape Seed Y.ield Losses Caused By L eptosphaeria Biglobosa In Central China. Cai, Xiang,Li, Guoqing,Jiang, Daohong,Huang, Yongju,Fitt, Bruce D. L.,Yang, Long. 2018

[16]Overexpression Of Bnkcs1-1, Bnkcs1-2, And Bncer1-2 Promotes Cuticular Wax Production And Increases Drought Tolerance In Brassica Napus. Li, Shuai,Xu, Yi,Jin, Shurong,Zhang, Shuangjuan,Ni, Yu,Li, Jiana,Yuan, Zheng,Wang, Yanmei. 2020

[17]Effect Of High Night Temperature O.n Storage Lipids And T ranscriptome Changes In Developing Seeds Of Oilseed Rape. Chen, Xin,Li, Zhilan,Jiang, Lixi,Hua, Shuijin,Yan, Tao,Zhou, Longhua,Wu, Dezhi,Zhou, Longhua. 2018

[18]The High-Quality Genome Of Brassica N.apus Cultivar 'Zs11' Reveals T he Introgression History In Semi-Winter Morphotype. Dong, Caihua,Chen, Wenbin,Guan, Chunyun,Fan, Guangyi,Fan, Guangyi,Mei, Desheng,Liu, Weiqing,Shi, Jiaqin,Long, Yan,Meng, Jinling,Liu, Xin,Hua, Wei,Huang, Shunmou,Guan, Mei,Hu, Zhiyong,Hu, Qiong,Tong, Chaobo,Fan, Guangyi,Fan, Guangyi,Du, Dezhi,Huang, Guodong,Chalhoub, Boulos,Sun, Fengming,Zhang, He,Zhou, Yongming,Yu, Jingyin,Liang, Xinming,Zeng, Peng,Zhang, Yaolei,Xu, Xun,Wang, Xinfa,Wang, Xi,Wang, Jiahao,Wang, Hanzhong,Lee, Simon Ming-Yuen,Li, Jiana,Liu, Xin,Qi, Cunkou,Shi, Chengcheng,Jiang, Liangcai,Liu, Shengyi,Li, Liangwei,Liu, Kede,Lee, Simon Ming-Yuen,Li, Jun. 2017

[19]Genome-Wide Identification And Characterization Of Fba Gene Family In Polyploid Crop Brassica Napus. Hua, Wei,Liu, Hongfang,Liu, Jing,Xu, Shouming,Zhao, Wei,Liu, Jun,Hu, Zhiyong,Zhang, Liang. 2019

[20]Combined Qtl Mapping, Physiological And T.ranscriptomic Analyses To Identify C andidate Genes Involved In Brassica Napus Seed Aging. Jian, Hongju,Hou, Lintao,Li, Jiana,Wang, Tengyue,Di, Feifei,Liu, Liezhao. 2018

作者其他论文 更多>>