Influence of 5-aminolevulinic acid on photosynthetically related parameters and gene expression in Brassica napus L. under drought stress

文献类型： 外文期刊

第一作者： Liu, D.

作者： Liu, D.;Yang, A. G.;Hu, L. Y.;Ali, B.;Wan, G. L.;Zhou, W. J.;Hu, L. Y.;Ali, B.;Wan, G. L.;Zhou, W. J.;Xu, L.;Xu, L.

作者机构：

关键词： 5-aminolevulinic acid;Brassica napus;compatible solutes;drought stress;gene expression;ion contents

期刊名称：SOIL SCIENCE AND PLANT NUTRITION （ 影响因子：2.389； 五年影响因子：2.525 ）

ISSN：

年卷期：

页码：

收录情况： SCI

摘要： In the present study, the roles of foliarly applied 5-aminolevulinic acid (ALA) in photosynthetic parameters, ion contents and expression of several photosynthetic genes were investigated in rapeseed (Brassica napus L.) under well watered and drought conditions. Drought stress reduced relative plant growth rate and leaf water content (RWC), and contents of photosynthetic pigments, starch, soluble proteins and ions in roots. This type of stress, however, stimulated the accumulation of soluble sugars and free amino acids, as well as leaf proline contents. The transcript levels of photosynthetic genes were also down-regulated under drought stress. Exogenously applied ALA partially reduced growth inhibition and increased RWC and chlorophyll contents under drought conditions. The expression of photosynthetic genes was induced by ALA under both normal and drought conditions, which may contribute to an increased photosynthetic capacity. The ALA application further improved the accumulation of hexose and sucrose, accompanied by the maintenance of starch contents in the leaves and possibly relatively higher RWC under drought stress. Based on these results, we suggest that ALA promotes plant growth under drought stress via improving photosynthetic assimilation, increasing chlorophyll content and inducing the expression of several photosynthetic genes.

分类号： S15

  • 相关文献

[1]Comparative Analysis of the Brassica napus Root and Leaf Transcript Profiling in Response to Drought Stress. Liu, Chunqing,Zhang, Ka,An, Hong,Hu, Kaining,Wen, Jing,Shen, Jinxiong,Ma, Chaozhi,Yi, Bin,Tu, Jinxing,Fu, Tingdong,Zhang, Xuekun. 2015

[2]VfCPK1, a gene encoding calcium-dependent protein kinase from Vicia faba, is induced by drought and abscisic acid. Liu, Guanshan,Chen, Jia,Wang, Xuechen. 2006

[3]DE NOVO TRANSCRIPTOME ANALYSIS OF MULBERRY (MORUS L.) UNDER DROUGHT STRESS USING RNA-SEQ TECHNOLOGY. Wang, Heng,Tong, Wei,Feng, Li,Jiao, Qian,Long, Li,Fang, Rongjun,Zhao, Weiguo,Long, Li,Zhao, Weiguo,Fang, Rongjun,Zhao, Weiguo.

[4]Gene expression profiling of Sinapis alba leaves under drought stress and rewatering growth conditions with Illumina deep sequencing. Dong, Cai-Hua,Yan, Xiao-Hong,Huang, Shun-Mou,Wang, Li-Jun,Guo, Rui-Xing,Lu, Guang-Yuan,Zhang, Xue-Kun,Fang, Xiao-Ping,Wei, Wen-Hui,Li, Chen,Huang, Jin-Yong.

[5]Identification and expression analysis of genes responsive to drought stress in peanut. Hou, L.,Liu, W.,Li, Z.,Huang, C.,Fang, X. L.,Wang, Q.,Liu, X.,Hou, L.,Liu, W.,Li, Z.,Huang, C.,Fang, X. L.,Wang, Q.,Liu, X.,Fang, X. L..

[6]Insight into the AP2/ERF transcription factor superfamily in sesame and expression profiling of DREB subfamily under drought stress. Dossa, Komivi,Wei, Xin,Li, Donghua,Zhang, Yanxin,Wang, Linhai,Yu, Jingyin,Boshou, Liao,Zhang, Xiurong,Dossa, Komivi,Fonceka, Daniel,Cisse, Ndiaga,Dossa, Komivi,Diouf, Diaga,Fonceka, Daniel. 2016

[7]Physiological changes and differential gene expression of tea plant under dehydration and rehydration conditions. Liu, Sheng-Chuan,Yao, Ming-Zhe,Ma, Chun-Lei,Jin, Ji-Qiang,Ma, Jian-Qiang,Li, Chun-Fang,Chen, Liang,Liu, Sheng-Chuan.

[8]Cloning and characterization of up-regulated HbSINA4 gene induced by drought stress in Tibetan hulless barley. Yuan, H. J.,Nyima, T. S.,Wang, Y. L.,Xu, Q. J.,Zeng, X. Q.,Yuan, H. J.,Nyima, T. S.,Wang, Y. L.,Xu, Q. J.,Zeng, X. Q.,Luo, X. M.. 2015

[9]Genome-Wide Identification and Expression Analysis of the KUP Family under Abiotic Stress in Cassava (Manihot esculenta Crantz). Ou, Wenjun,Li, Kaimian,Mao, Xiang,Huang, Chao,Tie, Weiwei,Yan, Yan,Ding, Zehong,Wu, Chunlai,Xia, Zhiqiang,Wang, Wenquan,Li, Kaimian,Hu, Wei,Zhou, Shiyi. 2018

[10]Comparative Transcriptomic Analysis of Two Brassica napus Near-Isogenic Lines Reveals a Network of Genes That Influences Seed Oil Accumulation. Wang, Jingxue,Li, Chen,Yuan, Ling,Singh, Sanjay K.,Pattanaik, Sitakanta,Yuan, Ling,Du, Chunfang,Fan, Jianchun. 2016

[11]Response of Nitrate Metabolism in Seedlings of Oilseed Rape (Brassica napus L.) to Low Oxygen Stress. Yu Chang-bing,Liao Xing,Xie Yu-yun,Hou Jia-jia,Fu You-qiang,Shen Hong. 2014

[12]Systematic Analysis of Hsf Family Genes in the Brassica napus Genome Reveals Novel Responses to Heat, Drought and High CO2 Stresses. Zhu, Xiaoyi,Huang, Chunqian,Zhang, Liang,Liu, Hongfang,Yu, Jinhui,Hu, Zhiyong,Hua, Wei. 2017

[13]Growth, ion content and photosynthetic responses of two Elytrigia Desv. species seedlings to salinity stress. Wang Zan,Zhang Geng,Wang Xue-min,Gao Hong-wen. 2011

[14]5-aminolevulinic acid improves salt tolerance mediated by regulation of tetrapyrrole and proline metabolism in Brassica napus L. seedlings under NaCl stress. Xiong, Jun-Lan,Wang, Hang-Chao,Tan, Xiao-Yu,Zhang, Chun-Lei,Zhang, Chun-Lei,Naeem, Muhammad Shahbaz. 2018

[15]Effects of 5-aminolevulinic acid on nitrogen metabolism and ion distribution of watermelon seedlings under salt stress. Chen, G.,Fan, P. S.,Feng, W. M.,Guan, A. Q.,Lu, Y. Y.,Wan, Y. L..

[16]Enhancement of 5-aminolevulinic acid production by metabolic engineering of the glycine biosynthesis pathway in Corynebacterium glutamicum. Zou, Yalan,Chen, Tao,Feng, Lili,Zhang, Shuanghong,Wang, Zhiwen,Zou, Yalan,Chen, Tao,Feng, Lili,Zhang, Shuanghong,Wang, Zhiwen,Zou, Yalan,Chen, Tao,Feng, Lili,Zhang, Shuanghong,Wang, Zhiwen,Xing, Dongxu.

[17]Identification and Characterization of Ectoine Biosynthesis Genes and Heterologous Expression of the ectABC Gene Cluster from Halomonas sp QHL1, a Moderately Halophilic Bacterium Isolated from Qinghai Lake. Zhu, Derui,Liu, Jian,Liu, Deli,Zhu, Derui,Shen, Guoping,Long, Qifu,Wei, Xiaoxing,Han, Rui. 2014

[18]How could haloalkaliphilic microorganisms contribute to biotechnology?. Zhao, Baisuo,Yan, Yanchun,Chen, Shulin.

[19]Silicon ameliorates the adverse effects of salt stress on sainfoin (Onobrychis viciaefolia) seedlings. Wu, Guo-Qiang,Liu, Hai-Long,Feng, Rui-Jun,Du, Yong-Yong,Wang, Chun-Mei. 2017

[20]ZmFKBP20-1 improves the drought and salt tolerance of transformed Arabidopsis. Yu, Yanli,Li, Yanjiao,Zhao, Meng,Li, Wencai,Sun, Qi,Li, Wenlan,Meng, Zhaodong,Jia, Fengjuan,Jia, Fengjuan,Li, Nana. 2017

作者其他论文 更多>>

微信小程序