ZmCIPK21, A Maize CBL-Interacting Kinase, Enhances Salt Stress Tolerance in Arabidopsis thaliana

文献类型： 外文期刊

第一作者： Chen, Xunji

作者： Chen, Xunji;Zhang, Fan;Wang, Bo;Wang, Jianhua;Chen, Xunji;Zhang, Fan;Wang, Bo;Zheng, Jun;Chen, Xunji;Huang, Quansheng

作者机构：

关键词： CIPK;stress;salt tolerance;Arabidopsis

期刊名称：INTERNATIONAL JOURNAL OF MOLECULAR SCIENCES （ 影响因子：5.923； 五年影响因子：6.132 ）

ISSN： 1422-0067

年卷期： 2014 年 15 卷 8 期

页码：

收录情况： SCI

摘要： Salt stress represents an increasing threat to crop growth and yield in saline soil. In this study, we identified a maize calcineurin B-like protein-interacting protein kinase (CIPK), ZmCIPK21, which was primarily localized in the cytoplasm and the nucleus of cells and displayed enhanced expression under salt stress. Over-expression of ZmCIPK21 in wild-type Arabidopsis plants increased their tolerance to salt, as supported by the longer root lengths and improved growth. The downstream stress-response genes, including dehydration-responsive element-binding (DREB) genes were also activated in transgenic plants over-expressing ZmCIPK21. In addition, introduction of the transgenic ZmCIPK21 gene into the Arabidopsis mutant cipk1-2 rescued the salt-sensitive phenotype under high salt stress. Measurement of Na+ and K+ content in transgenic plants showed that over-expression of ZmCIPK21 decreased accumulation of Na+ and allowed retention of relatively high levels of K+, thereby enhancing plant tolerance to salt conditions.

分类号：

  • 相关文献

[1]HbCIPK2, a novel CBL-interacting protein kinase from halophyte Hordeum brevisubulatum, confers salt and osmotic stress tolerance. Li, Ruifen,Zhang, Junwen,Wu, Guangyu,Wang, Hongzhi,Chen, Yajuan,Wei, Jianhua. 2012

[2]Cloning and characterization of a novel CBL-interacting protein kinase from maize. Zheng, Jun,Wang, Guoying,Zheng, Jun,Wang, Guoying,Zhao, Jinfeng,Zhao, Jinfeng,Sun, Zhenfei,Guo, Xiying,Dong, Zhigang,Huai, Junling,Gou, Mingyue,He, Junguang,Jin, Yongsheng,Wang, Jianhua,Zhao, Jinfeng,Sun, Zhenfei,Guo, Xiying,Dong, Zhigang,Huai, Junling,Gou, Mingyue,He, Junguang,Jin, Yongsheng,Wang, Jianhua.

[3]Overexpression of a putative maize calcineurin B-like protein in Arabidopsis confers salt tolerance. Wang, Maoyan,Gu, Dan,Liu, Tingsong,Wang, Zhaoqiang,Guo, Xiying,Hou, Wei,Bai, Yunfeng,Chen, Xiaoping,Wang, Guoying.

[4]Cloning and expression analysis of a vacuolar Na+/H+ antiporter gene from Alfalfa. Yang, QC,Wu, MS,Wang, PQ,Kang, JM,Zhou, XL.

[5]Tissue-specific expression and drought responsiveness of cell-wall invertase genes of rice at flowering. Ji, XM,Raveendran, M,Oane, R,Ismail, A,Lafitte, R,Bruskiewich, R,Cheng, SH,Bennett, J.

[6]Iron nutrition affects cadmium accumulation and toxicity in rice plants. Shao, Guosheng,Chen, Mingxue,Wang, Weixia,Mon, Renxiang,Zhang, Guoping.

[7]Roles of NIA/NR/NOA1-dependent nitric oxide production and HY1 expression in the modulation of Arabidopsis salt tolerance. Xie, Yanjie,Mao, Yu,Lai, Diwen,Zhang, Wei,Shen, Wenbiao,Zheng, Tianqing. 2013

[8]Nicotiana sylvestris calcineurin B-like protein NsylCBL10 enhances salt tolerance in transgenic Arabidopsis. Dong, Lianhong,Wang, Qian,Manik, S. M. Nuruzzaman,Song, Yufeng,Su, Yulong,Liu, Guanshan,Liu, Haobao,Dong, Lianhong,Wang, Qian,Manik, S. M. Nuruzzaman,Song, Yufeng,Su, Yulong,Liu, Guanshan,Liu, Haobao,Shi, Sujuan.

[9]A Vitis vinifera xanthine dehydrogenase gene, VvXDH, enhances salinity tolerance in transgenic Arabidopsis. You, Shuanghong,Sun, Miao,Zhu, Bo,Wang, Feibing,Han, Hongjuan,Zhu, Hengweng,Peng, Rihe,Yao, Quanhong.

[10]Identification and Bioinformatics Analysis of SnRK2 and CIPK Family Genes in Sorghum. Li Li-bin,Gao Jian-wei,Zhang Yi-rong,Liu Kai-chang,Ni Zhong-fu,Sun Qi-xin. 2010

[11]Foxtail Millet CBL4 (SiCBL4) Interacts with SiCIPK24, Modulates Plant Salt Stress Tolerance. Zhang, Yumin,Linghu, Jingjing,Wang, Dong,Liu, Xi,Li, Fengting,Zhao, Tianyong,Zhang, Yumin,Linghu, Jingjing,Wang, Dong,Liu, Xi,Li, Fengting,Zhao, Tianyong,Zhang, Yumin,Linghu, Jingjing,Wang, Dong,Liu, Xi,Li, Fengting,Zhao, Tianyong,Yu, Aili,Zhao, Jinfeng. 2017

[12]Mechanisms and Physiological Roles of the CBL-CIPK Networking System in Arabidopsis thaliana. Mao, Jingjing,Manik, S. M. Nuruzzaman,Shi, Sujuan,Chao, Jiangtao,Wang, Qian,Liu, Haobao,Shi, Sujuan,Jin, Yirong. 2016

[13]Functions and mechanisms of the CBL-CIPK signaling system in plant response to abiotic stress. Li, Ruifen,Zhang, Junwen,Wei, Jianhua,Wang, Hongzhi,Wang, Yanzhen,Ma, Rongcai,Zhang, Junwen. 2009

[14]Characterization of CIPK Family in Asian Pear (Pyrus bretschneideri Behd) and Co-expressin Analysis Related to Salt and Osmotic Stress Responses. Tang, Jun,Lin, Jing,Chang, Youhong,Tang, Jun,Cheng, Zong-Ming. 2016

[15]Eco-physiological Responses of Rice (Oryza sativa L.) Roots to Zinc, Chromium Stress. Zhang, Qingsong,Zhu, Xuemei,Yang, Yuanxiang,Yuan, Weiding,Lin, Lijin,Liu, Qihua,Shao, Jirong. 2010

[16]An NAM Domain Gene, GhNAC79, Improves Resistance to Drought Stress in Upland Cotton. Guo, Yaning,Yu, Shuxun,Jia, Xiaoyun,Dou, Lingling,Yu, Shuxun,Guo, Yaning,Pang, Chaoyou,Ma, Qifeng,Zhao, Fengli,Gu, Lijiao,Wei, Hengling,Wang, Hantao,Fan, Shuli,Su, Junji. 2017

[17]Accumulation and distribution of As in different tissues of Camellia sinensis. Xiong, Huabin,Duan, Changqun,Fu, Denggao,Yan, Kai,He, Feng,Xiong, Huabin,Liang, Mingzhi. 2014

[18]Expression of heat shock protein 70 in transport-stressed broiler pectoralis major muscle and its relationship with meat quality. Xing, T.,Han, M. Y.,Xu, X. L.,Zhou, G. H.,Wang, M. F.,Zhu, X. S.. 2017

[19]Catecholamine-Stimulated Growth of Aeromonas hydrophila Requires the TonB2 Energy Transduction System but Is Independent of the Amonabactin Siderophore. Dong, Yuhao,Liu, Jin,Pang, Maoda,Du, Hechao,Wang, Nannan,Awan, Furqan,Lu, Chengping,Liu, Yongjie,Pang, Maoda. 2016

[20]Gene Expression of Type VI Secretion System Associated with Environmental Survival in Acidovorax avenae subsp avenae by Principle Component Analysis. Cui, Zhouqi,Li, Bin,Kakar, Kaleem Ullah,Ojaghian, Mohammad Reza,Xie, Guanlin,Jin, Guoqiang,Wang, Yangli,Sun, Guochang. 2015

作者其他论文 更多>>

微信小程序