Silicon enhances photochemical efficiency and adjusts mineral nutrient absorption in Magnaporthe oryzae infected rice plants
文献类型: 外文期刊
作者: Gao, Dan 1 ; Cai, Kunzheng 1 ; Chen, Jining 1 ; Luo, Shiming 1 ; Zeng, Rensen 1 ; Yang, Jianyuan 3 ; Zhu, Xiaoyuan 3 ;
作者机构: 1.S China Agr Univ, Key Lab Ecol Agr, Minist Agr, Guangzhou 510642, Guangdong, Peoples R China
2.China Agr Univ, Coll Resources & Environm Sci, Beijing 100193, Peoples R China
3.Guangdong Acad Agr Sci, Inst Plant Protect, Guangzhou 510640, Guangdong, Peoples R China
关键词: iron: 7439-89-6;nutrient;chlorophyll;calcium: 7440-70-2;nutrient;potassium: 7440-09-7;nutrient;magnesium: 7439-95-4;nutrient;sodium: 7440-23-5;nutrient;PS II;silicon: 7440-21-3;agrichemical;fertilizer;disease susceptibility;photochemical efficiency;disease resistance;plant yield;quantum efficiency;mineral nutrient absorption
期刊名称:ACTA PHYSIOLOGIAE PLANTARUM ( 影响因子:2.354; 五年影响因子:2.711 )
ISSN:
年卷期:
页码:
收录情况: SCI
摘要: Silicon (Si) has been verified to play an important role in enhancing plant resistance against pathogens, but the exact mechanisms remain unclear. Two near-isogenic lines of rice (Oryza sativa L.), CO39 (blast susceptible), and C101LAC (Pi-1) (blast resistant), were hydroponically grown to study the effects of exogenous silicon application on the changes of disease incidence, mineral nutrient concentrations, chlorophyll content, and photochemical efficiency in Magnaporthe oryzae infected rice plants. Si amendment in nutrient solution at a concentration of 2.0 mM significantly reduced the disease index of rice plants of CO39 and C101LAC (Pi-1). Silicon application alone had no effects on mineral nutrient contents, chlorophyll content, maximum/potential quantum efficiency (F (v)/F (m)), and the maximum primary yield (F (v)/F (0)) of photochemistry of PS II in healthy rice leaves. M. oryzae inoculation significantly increased the content of K, Na, Ca, Mg, Fe, and reduced the value of F (v)/F (0) and F (v)/F (m) in rice leaves. However, Si treatment suppressed M. oryzae induced increase of mineral nutrient contents, and significantly increased F (v)/F (0) and F (v)/F (m) value compared with Si-deficient infected plants. These results suggest that silicon-enhanced resistance to rice blast is associated with an enhancement of photochemical efficiency and adjustment of mineral nutrient absorption in M. oryzae-infected rice plants.
- 相关文献
作者其他论文 更多>>
-
Pangenome-Wide Association Study and Transcriptome Analysis Reveal a Novel QTL and Candidate Genes Controlling both Panicle and Leaf Blast Resistance in Rice
作者:Wang, Jian;Hu, Haifei;Zhang, Shaohong;Yang, Wu;Dong, Jingfang;Yang, Tifeng;Ma, Yamei;Zhou, Lian;Chen, Jiansong;Nie, Shuai;Liu, Chuanguang;Liu, Bin;Zhao, Junliang;Wang, Jian;Hu, Haifei;Zhang, Shaohong;Yang, Wu;Dong, Jingfang;Yang, Tifeng;Ma, Yamei;Zhou, Lian;Chen, Jiansong;Nie, Shuai;Liu, Chuanguang;Liu, Bin;Zhao, Junliang;Wang, Jian;Hu, Haifei;Zhang, Shaohong;Yang, Wu;Dong, Jingfang;Yang, Tifeng;Ma, Yamei;Zhou, Lian;Chen, Jiansong;Nie, Shuai;Liu, Chuanguang;Liu, Bin;Zhao, Junliang;Wang, Jian;Hu, Haifei;Zhang, Shaohong;Yang, Wu;Dong, Jingfang;Yang, Tifeng;Ma, Yamei;Zhou, Lian;Chen, Jiansong;Nie, Shuai;Liu, Chuanguang;Liu, Bin;Zhao, Junliang;Zhu, Xiaoyuan;Yang, Jianyuan;Zhu, Xiaoyuan;Yang, Jianyuan;Jiang, Xianya;Ning, Yuese
关键词:Rice; Blast resistance; Pangenome-wide association study; Transcriptomic analysis; Candidate genes
-
Characterization of rice aspartic protease genes and induced expression by phytohormones and Xanthomonas oryzae pv. oryzae
作者:Gull, Sadia;Chen, Kun;Jiang, Yan;Tang, Xiaoya;Yang, Chenxi;Chen, Lin;Wang, Shuang;Liu, Jinglan;Kong, Weiwen;Uddin, Saleem;Altaf, Adil;Yang, Jianyuan;Kong, Weiwen
关键词:Aspartic protease; Rice (Oryza sativa); Xanthomonas oryzae pv. oryzae
-
Bacillus amyloliquefaciens LM-1 Affects Multiple Cell Biological Processes in Magnaporthe oryzae to Suppress Rice Blast
作者:Liang, Meiling;Feng, Aiqing;Wang, Congying;Zhu, Xiaoyuan;Su, Jing;Yang, Jianyuan;Wang, Wenjuan;Chen, Kailing;Chen, Bing;Lin, Xiaopeng;Feng, Jinqi;Chen, Shen;Xu, Zihan
关键词:Magnaporthe oryzae; Bacillus amyloliquefaciens LM-1; appressorium; cell death; autophagy
-
Overexpression of OsGF14C enhances salinity tolerance but reduces blast resistance in rice
作者:Dong, Jingfang;Li, Xuezhong;Ma, Yamei;Chen, Jiansong;Yang, Wu;Zhou, Lian;Wang, Jian;Yang, TiFeng;Zhang, Shaohong;Zhao, Junliang;Liu, Qing;Liu, Bin;Dong, Jingfang;Li, Xuezhong;Ma, Yamei;Chen, Jiansong;Yang, Wu;Zhou, Lian;Wang, Jian;Yang, TiFeng;Zhang, Shaohong;Zhao, Junliang;Liu, Qing;Liu, Bin;Dong, Jingfang;Li, Xuezhong;Ma, Yamei;Chen, Jiansong;Yang, Wu;Zhou, Lian;Wang, Jian;Yang, TiFeng;Zhang, Shaohong;Zhao, Junliang;Liu, Qing;Liu, Bin;Li, Xuezhong;Zhou, Lingyan;Yang, Jianyuan;Zhu, Xiaoyuan
关键词:OsGF14C; salinity; blast; Na plus Uptake; Lox2; rice
-
OsGLP3-7 positively regulates rice immune response by activating hydrogen peroxide, jasmonic acid, and phytoalexin metabolic pathways
作者:Sun, Bingrui;Ma, Yamei;Ding, Jierong;Yu, Hang;Jiang, Liqun;Zhang, Jing;Lv, Shuwei;Liu, Bin;Liu, Qing;Li, Wenyan;Yu, Ting;Huang, Wenjie;Yan, Shijuan;Yang, Jianyuan
关键词:disease resistance; germin-like protein; H2O2; jasmonic acid; phytoalexin; rice
-
Silicon Controls Bacterial Wilt Disease in Tomato Plants and Inhibits the Virulence-Related Gene Expression of Ralstonia solanacearum
作者:Wang, Lei;Gao, Yang;Jiang, Nihao;Yan, Jian;Cai, Kunzheng;Lin, Weipeng;Cai, Kunzheng
关键词:silicon; Ralstonia solanacearum; tomato; bacterial wilt; biofilm; virulence-related genes
-
Overexpression of OsGF14f Enhances Quantitative Leaf Blast and Bacterial Blight Resistance in Rice
作者:Ma, Yamei;Dong, Jingfang;Zhang, Shaohong;Yang, Wu;Zhao, Junliang;Yang, Tifeng;Chen, Luo;Zhou, Lian;Wang, Jian;Chen, Jiansong;Li, Wenhui;Wu, Wei;Liu, Qing;Liu, Bin;Ma, Yamei;Dong, Jingfang;Zhang, Shaohong;Yang, Wu;Zhao, Junliang;Yang, Tifeng;Chen, Luo;Zhou, Lian;Wang, Jian;Chen, Jiansong;Li, Wenhui;Wu, Wei;Liu, Qing;Liu, Bin;Ma, Yamei;Dong, Jingfang;Zhang, Shaohong;Yang, Wu;Zhao, Junliang;Yang, Tifeng;Chen, Luo;Zhou, Lian;Wang, Jian;Chen, Jiansong;Li, Wenhui;Wu, Wei;Liu, Qing;Liu, Bin;Yang, Jianyuan
关键词:GF14f; leaf blast resistance; bacterial blight resistance; SA pathway