Variation in the Abundance of OsHAK1 Transcript Underlies the Differential Salinity Tolerance of an indica and a japonica Rice Cultivar

文献类型： 外文期刊

第一作者： Chen, Guang

作者： Chen, Guang;Liu, Chaolei;Gao, Zhenyu;Zhang, Yu;Zhang, Anpeng;Zhu, Li;Hu, Jiang;Ren, Deyong;Qian, Qian;Chen, Guang;Yu, Ling;Xu, Guohua

作者机构：

关键词： salinity stress;OsHAK1;Na+ and K+ homeostasis;Oryza sativa;9311;Nipponbare

期刊名称：FRONTIERS IN PLANT SCIENCE （ 影响因子：5.753； 五年影响因子：6.612 ）

ISSN： 1664-462X

年卷期： 2018 年 8 卷

页码：

收录情况： SCI

摘要： Salinity imposes a major constraint over the productivity of rice. A set of chromosome segment substitution lines (CSSLs), derived from a cross between the japonica type cultivar (cv.) Nipponbare (salinity sensitive) and the indica type cv. 9311 (moderately tolerant), was scored using a hydroponics system for their salinity tolerance at the seedling stage. Two of the CSSLs, which share a similar to 1.2 Mbp stretch of chromosome 4 derived from cv. Nipponbare, were as sensitive to the stress as cv. Nipponbare itself. Fine mapping based on an F-2 population bred from a backcross between one of these CSSLs and cv. 9311 narrowed this region to 95 Kbp, within which only one gene (OsHAK1) exhibited a differential (lower) transcript abundance in cv. Nipponbare and the two CSSLs compared to in cv. 9311. The gene was up-regulated by exposure to salinity stress both in the root and the shoot, while a knockout mutant proved to be more salinity sensitive than its wild type with respect to its growth at both the vegetative and reproductive stages. Seedlings over-expressing OsHAK1 were more tolerant than wild type, displaying a superior photosynthetic rate, a higher leaf chlorophyll content, an enhanced accumulation of proline and a reduced level of lipid peroxidation. At the transcriptome level, the over-expression of OsHAK1 stimulated a number of stress-responsive genes as well as four genes known to be involved in Na+ homeostasis and the salinity response (OsHKT1;5, OsSOS1,OsLti6a and OsLti6b). When the stress was applied at booting through to maturity, the OsHAK1 over-expressorsout-yielded wild type by 25%, and no negative pleiotropic effects were expressed in plants gown under non-saline conditions. The level of expression of OsHAK1 was correlated with Na+/K+ homeostasis, which implies that the gene should be explored a target for molecular approaches to the improvement of salinity tolerance in rice.

分类号：

  • 相关文献

[1]Expression of an elicitor-encoding gene from Magnaporthe grisea enhances resistance against blast disease in transgenic rice. Qiu, Dewen,Mao, Jianjun,Yang, Xiufen,Zeng, Hongmei. 2009

[2]OsHAK1, a High-Affinity Potassium Transporter, Positively Regulates Responses to Drought Stress in Rice. Chen, Guang,Liu, Chaolei,Gao, Zhenyu,Zhang, Yu,Jiang, Hongzhen,Zhu, Li,Ren, Deyong,Qian, Qian,Chen, Guang,Yu, Ling,Xu, Guohua. 2017

[3]IMPROVED NUTRIENT UPTAKE ENHANCES COTTON GROWTH AND SALINITY TOLERANCE IN SALINE MEDIA. Dai, J. L.,Duan, L. S.,Dong, H. Z.,Dai, J. L.. 2014

[4]Unequal salt distribution in the root zone increases growth and yield of cotton. Dong, Hehzong,Kong, Xianggiang,Luo, Zhen,Li, Weijiang,Xin, Chengsong. 2010

[5]Molecular cloning and characterization of a salinity stress-induced gene encoding DEAD-box helicase from the halophyte Apocynum venetum. H. H. Liu,J. Liu,S. L. Fan,M. Z. Song,X. L. Han,F. Liu,F. F. Shen.

[6]SOIL PLUS FOLIAR NITROGEN APPLICATION INCREASES COTTON GROWTH AND SALINITY TOLERANCE. Luo, Zhen,Kong, Xiangqiang,Dai, Jianlong,Dong, Hezhong.

[7]Genome-Wide Identification and Expression Profile of Dof Transcription Factor Gene Family in Pepper (Capsicum annuum L.). Wu, Zhiming,Bang, Guansheng,Cheng, Jiaowen,Cui, Junjie,Hu, Kailin,Xu, Xiaowan,Luo, Xirong,Chen, Xiaocui,Tang, Xiangqun,Qin, Cheng,Qin, Cheng. 2016

[8]Responses of antioxidant gene, protein and enzymes to salinity stress in two genotypes of perennial ryegrass (Lolium perenne) differing in salt tolerance. Hu, Longxing,Li, Huiying,Fu, Jinmin,Pang, Huangcheng. 2012

[9]Growth and physiological response of tall oat grass to salinity stress. Wang Zan,Yang Xi,Wang Xue-Min,Gao Hong-Wen. 2011

[10]PHYSIOLOGICAL AND BIOCHEMICAL RESPONSES TO NACl SALINITY STRESS IN THREE ROEGNERIA (POACEAE) SPECIES. Xie, Jihong,Dai, Yating,Mu, Huaibin,De, Ying,Wu, Zinian,Yu, Linqing,Ren, Weibo,Xie, Jihong,Dai, Yating,Mu, Huaibin,De, Ying,Wu, Zinian,Yu, Linqing,Ren, Weibo,Chen, Hao. 2016

[11]Effects of various salinities on Na+-K+-ATPase, Hsp70 and Hsp90 expression profiles in juvenile mitten crabs, Eriocheir sinensis. Sun, M.,Jiang, K.,Zhang, F.,Zhang, D.,Shen, A.,Jiang, M.,Shen, X.,Ma, L.,Sun, M.,Zhang, D.. 2012

[12]Integrated biomarker responses in the hepatopancreas of the bivalve, Mactra veneriformis (Reeve, 1854) from the Yellow River Estuary, China. Sun, Xuemei,Xia, Bin,Cui, Zhengguo,Chen, Bijuan. 2016

[13]Detecting Suaeda salsa L. chlorophyll fluorescence response to salinity stress by using hyperspectral reflectance. Zhang, Hao,Wang, Kelin,Song, Tongqing,Zhang, Hao,Wang, Kelin,Zeng, Fuping,Hu, Hao,Zhang, Xiaobin. 2012

[14]Isolation and characterization of GoDREB encoding an ERF-type protein in forage legume Galegae orientalis. Wang, Xuemin,Chen, Xiaofang,Wang, Zan,Gao, Hongwen,Nikolay, Dzyubenko,Vladimir, Chapurin.

[15]Proteomic response of oat leaves to long-term salinity stress. Bai, Jianhui,Qin, Yan,Wang, Yuqing,Bai, Jianhui,Liu, Jinghui,Sa, Rula,Zhang, Na,Jia, Ruizong.

[16]Diversity in D-genome synthetic hexaploid wheat association panel for seedling emergence traits under salinity stress. Khan, Zeeshan,Qazi, Javaria,Rasheed, Awais,Rasheed, Awais,Mujeeb-Kazi, Abdul.

[17]A Novel Dehydration-Responsive Element-Binding Protein from Caragana korshinskii Is Involved in the Response to Multiple Abiotic Stresses and Enhances Stress Tolerance in Transgenic Tobacco. Wang, Xuemin,Dong, Jie,Gao, Hongwen,Liu, Yun.

[18]Physiological effects of exogenous nitric oxide on Brassica juncea seedlings under NaCl stress. Zeng, C. -L.,Zhou, Y.,Zeng, C. -L.,Wu, X. -M.,Liu, L.,Wang, B. -R..

[19]Analysis of the Role of the Drought-Induced Gene DRI15 and Salinity-Induced Gene SI1 in Alternanthera philoxeroides Plasticity Using a Virus-Based Gene Silencing Tool. Bai, Chao,Wang, Peng,Fan, Qiang,Wang, Le,Zhang, Zhen-Nan,Wu, Jia-He,Bai, Chao,Fu, Wei-Dong,Song, Zhen,Zhang, Guo-Liang. 2017

[20]Proteomic analysis of salt and osmotic-drought stress in alfalfa seedlings. Ma Qiao-li,Sun Yan,Kang Jun-mei,Long Rui-cai,Cui Yan-jun,Zhang Tie-jun,Xiong Jun-bo,Yang Qing-chuan,Ma Qiao-li,Xiong Jun-bo. 2016

作者其他论文 更多>>
  • Impact of residual antibiotics on microbial decomposition of livestock manures in Eutric Regosol: Implications for sustainable nutrient recycling and soil carbon sequestration

    作者：Fang, Linfa;Lakshmanan, Prakash;Su, Xiaoxuan;Shi, Yujia;Chen, Zheng;Zhang, Yu;Xiao, Ran;Chen, Xinping;Lakshmanan, Prakash;Wu, Junxi;Lakshmanan, Prakash;Lakshmanan, Prakash;Sun, Wei

    关键词：Residual antibiotics; Livestock manure decomposition; Microbial community; Co -occurrence network; Enzyme activities

  • Wild rice: unlocking the future of rice breeding

    作者：Zheng, Xiaoming;Qian, Qian;Zheng, Xiaoming;Qian, Qian;Zheng, Xiaoming;Peng, Youlin;Qiao, Jiyue;Qian, Qian;Henry, Robert

    关键词：wild rice; germplasm resources; rice breeding; cultivated rice

  • Optimizing the Total Spikelets Increased Grain Yield in Rice

    作者：Liu, Kun;Zhang, Yu;Li, Shouguo;Zhang, Jingli;Deng, Shan;Zhang, Yiying;Huang, Jingyan;Ren, Li;Chu, Yunxia;Zhao, Hong;Chen, Hairong;Liu, Kun;Zhang, Yu;Li, Shouguo;Zhang, Jingli;Deng, Shan;Zhang, Yiying;Huang, Jingyan;Ren, Li;Chu, Yunxia;Zhao, Hong;Chen, Hairong;Zhang, Kaixi;Cui, Jiarong;Li, Zhikang;Huang, Jian

    关键词：rice (Oryza sativa L.); high yield; rice varieties with various yield types; total spikelets; total nitrogen application rate

  • A centromere map based on super pan-genome highlights the structure and function of rice centromeres

    作者：Lv, Yang;Wang, Yueying;Jahan, Noushin;Ma, Jie;Qian, Qian;Guo, Longbiao;Lv, Yang;Liu, Congcong;Li, Xiaoxia;He, Huiying;He, Wenchuang;Chen, Wu;Yang, Longbo;Dai, Xiaofan;Cao, Xinglan;Yu, Xiaoman;Liu, Jiajia;Zhang, Bin;Wei, Hua;Zhang, Hong;Qian, Hongge;Shi, Chuanlin;Leng, Yue;Liu, Xiangpei;Guo, Mingliang;Wang, Xianmeng;Zhang, Zhipeng;Wang, Tianyi;Zhang, Bintao;Xu, Qiang;Cui, Yan;Zhang, Qianqian;Yuan, Qiaoling;Zhou, Yongfeng;Qian, Qian;Shang, Lianguang;Zheng, Xiaoming;Qian, Qian;Shang, Lianguang;Zheng, Xiaoming

    关键词：centromere; super pan-genome; CentO satellite repeat; rice

  • pOsHAK1:OsSUT1 Promotes Sugar Transport and Enhances Drought Tolerance in Rice

    作者：Chen, Guang;Lian, Wenli;Geng, Anjing;Wang, Yihan;Liu, Minghao;Zhang, Yue;Wang, Xu;Chen, Guang;Lian, Wenli;Geng, Anjing;Wang, Yihan;Liu, Minghao;Zhang, Yue;Wang, Xu;Chen, Guang;Lian, Wenli;Geng, Anjing;Wang, Yihan;Liu, Minghao;Zhang, Yue;Wang, Xu

    关键词：rice; drought tolerance; sugar transport; inducible promoter

  • Stimuli-responsive biodegradable silica nanoparticles: From native structure designs to biological applications

    作者：Qi, Qianhui;Wang, Wei;Shen, Qian;Geng, Jiaying;An, Weizhen;Wu, Qiong;Yu, Changmin;Shen, Qian;Geng, Jiaying;An, Weizhen;Wu, Qiong;Yu, Changmin;Qi, Qianhui;Yu, Changmin;Wang, Nan;Zhang, Yu;Li, Xue;Li, Lin

    关键词：Biodegradation; Silica nanoparticles; Stimuli -responsive; Multiple frameworks; Biological applications

  • Comparative phylogenomics and phylotranscriptomics provide insights into the genetic complexity of nitrogen-fixing root-nodule symbiosis

    作者：Zhang, Yu;Fu, Yuan;Xian, Wenfei;Li, Xiuli;Feng, Yong;Bu, Fengjiao;Shi, Yan;Chen, Shiyu;Cheng, Shifeng;van Velzen, Robin;Schranz, M. Eric;Battenberg, Kai;Berry, Alison M.;Salgado, Marco G.;Pawlowski, Katharina;Liu, Hui;Yi, Tingshuang;Fournier, Pascale;Alloisio, Nicole;Pujic, Petar;Schranz, M. Eric;Normand, Philippe;Delaux, Pierre-Marc;Wong, Gane Ka-Shu;Hocher, Valerie;Svistoonoff, Sergio;Gherbi, Hassen;Wang, Ertao;Kohlen, Wouter;Wall, Luis G.;Parniske, Martin;Doyle, Jeffrey J.;Fu, Yuan;Fu, Yuan

    关键词：nitrogen-fixing root-nodule symbiosis; two competing hypotheses; phylogenomics; phylotranscriptomics; conserved non-coding elements; convergence; deep homology

微信小程序