您好，欢迎访问黑龙江省农业科学院 机构知识库！
黑龙江省农业科学院机构知识库

全部

  • 全部
  • 标题
  • 学者
  • 机构
  • 关键词

Colonization of Clonostachys rosea on soybean root grown in media inoculated with Fusarium graminearum

文献类型： 外文期刊

作者： Pan, F. 1 ; Xue, Allen G. 2 ; McLaughlin, Neil B. 2 ; Li, S. 3 ; Xu, Y. 1 ; Zhao, D. 4 ; Qu, H. 4 ;

作者机构： 1.Chinese Acad Sci, Northeast Inst Geog & Agroecol, Key Lab Mollisols Agroecol, Natl Observat Stn Hailun Agroecol Syst, Harbin, Peoples R China

2.Agr & Agri Food Canada, Eastern Cereal & Oilseed Res Ctr, Sci & Technol Branch, Ottawa, ON, Canada

3.ARS, USDA, Crop Genet Res Unit, Stoneville, MS USA

4.Heilongjiang Acad Agr Sci, Hort Branch, Harbin, Peoples R China

关键词： biocontrol agent;colony forming unit;distribution;soybean

期刊名称：ACTA AGRICULTURAE SCANDINAVICA SECTION B-SOIL AND PLANT SCIENCE （ 影响因子：1.694； 五年影响因子：1.568 ）

ISSN：

年卷期：

页码：

收录情况： SCI

摘要： Soybean root rot, caused by Fusarium graminearum, is an important disease in Canada. Clonostachys rosea has been reported to provide protection against plant pathogens in different crops. The objectives of this study were to determine if a strain of C. rosea, ACM 941, can colonize soybean root that were grown in media inoculated with F. graminearum, and to determine if the distribution of C. rosea was different at different root depths. There were three treatments in this study, which included a control (CK) using normal seed without any fungal treatments; seed inoculated with ACM 941 (ACM); and seed inoculated ACM 941 and growing media inoculated with F. graminearum (ACM + Fg). Results showed that the colony forming unit (CFU) of ACM 941 was loweron the tap roots and secondary roots growing 8-13 cm below ground level than sections of roots growing 0-3 cm or 3-8 cm below ground level. ACM 941 was found in roots at the third day after soybean seed was planted, and maintained high CFU most of the time during soybean growth. Inoculation with F graminearum had no effect on CFU of ACM 941. The ACM 941 strain colonized soybean root rapidly and was not affected by the existence of F graminearum, suggesting that ACM 941 can successfully compete with F graminearum, may have potential as an effective biocontrol agent for protecting soybean from the Fusarium root rot.

  • 相关文献

[1]Geographical distribution of GmTfl1 alleles in Chinese soybean varieties. Liu, Guifeng,Zhao, Lin,Qiu, Lijuan,Liu, Ying,Chang, Ruzhen,Guan, Rongxia,Qiu, Lijuan,Averitt, Benjamin J.,Zhang, Bo,Ma, Yansong,Luan, Xiaoyan. 2015

[2]Fine Mapping and Identification of a Novel Phytophthora Root Rot Resistance Locus RpsZS18 on Chromosome 2 in Soybean. Zhong, Chao,Sun, Suli,Duan, Canxing,Zhu, Zhendong,Yao, Liangliang,Ding, Junjie. 2018

[3]Genetic overlap of QTL associated with low-temperature tolerance at germination and seedling stage using BILs in soybean. Zhang, Wen-Bo,Jiang, Hong-wei,Liu, Chun-Yan,Hu, Guo-Hua,Zhang, Wen-Bo,Jiang, Hong-wei,Xin, Da-Wei,Chen, Qing-Shan,Hu, Guo-Hua,Li, Can-Dong,Zhang, Wen-Bo,Qiu, Peng-Cheng,Chen, Fei-Long. 2012

[4]QTL analysis of soybean oil content under 17 environments. Qi, Zhaoming,Hou, Meng,Xin, Dawei,Wang, Zhongyu,Zhu, Rongsheng,Hu, Zhenbang,Chen, Qingshan,Han, Xue,Jiang, Hongwei,Liu, Chunyan,Hu, Guohua,Li, Candong. 2014

[5]Ectopic expression of Arabidopsis thaliana Na+(K+)/H+ antiporter gene, AtNHX5, enhances soybean salt tolerance. Wu, X. X.,Li, J.,Wu, X. D.,Wang, Z. K.,Liu, S. S.,Li, S. N.,Ma, Y. L.,Zhao, L.,Li, H. Y.,Li, D. M.,Li, W. B.,Liu, Q.,Su, A. Y.,Sun, J.. 2016

[6]GmACP expression is decreased in GmNORK knockdown transgenic soybean roots. Wang, Lijun,Deng, Lingwei. 2016

[7]Construction and analysis of a suppression subtractive hybridization library of regeneration-related genes in soybean. Sun, J.,Li, J.,Liu, M.,Zhang, B. B.,Li, D. M.,Wang, M.,Zhang, C.,Li, W. B.,Wu, X. X.,Sun, J.,Su, A. Y.. 2015

[8]Differentially Expressed Genes of Soybean During Infection by Phytophthora sojae. Xu Peng-fei,Li Wen-bin,Fan Su-jie,Li Ning-hui,Wang Xin,Jiang Liang-yu,Zhang Shu-zhen,Wu Jun-jiang,Wei Lai,Xue, Allen,Chen Wei-yuan,Lv Hui-ying,Lin Shi-feng. 2012

[9]Analysis of the APX Gene Expressed in Soybean Infected by Heterodera glycines and Coated with Biocontrol Bacteria Sneb545. Xiang, Peng,Li, Hongpeng,Lu, Wencheng,Li, Baohua,Xiang, Peng,Zhu, Feng,Chen, Jingsheng,Li, Hongpeng,Chen, Lijie,Duan, Yuxi,Chen, Jingsheng. 2016

[10]An Integrated Quantitative Trait Locus Map of Oil Content in Soybean, Glycine max (L.) Merr., Generated Using a Meta-Analysis Method for Mining Genes. Han Xue,Liu Chun-yan,Jiang Hong-wei,Hu Guo-hua,Qi Zhao-ming,Sun Ya-nan,Wu Qiong,Du Xiang-yu,Liu Chun-yan,Chen Qing-shan,Shan Da-peng. 2011

[11]C-4 pathway enzymes in soybean leaves. Li, WH,Lu, QT,Hao, NB,Ge, QY,Zhang, QD,Du, WG,Kuang, TY. 2001

[12]Cloning Na+/H+ Antiporter Gene (nhaA) and Analysis of Function in Soybean. Wang Quanwei,Chen Liang,Zhang Hailing. 2011

[13]Detecting SNPs underlying domestication-related traits in soybean. Li, Ying-Hui,Ma, Yan-Song,Chang, Ru-Zhen,Qiu, Li-Juan,Reif, Jochen C.,Jackson, Scott A.,Ma, Yan-Song. 2014

[14]Identification of QTL underlying soybean agglutinin content in soybean seeds and analysis for epistatic effects among multiple genetic backgrounds and environments. Yang, M. -L.,Li, H. -Y.,Sui, M. -N.,Wang, J. -A.,Ding, J. -J.. 2017

[15]Stability of growth periods traits for soybean cultivars across multiple locations. Liu Zhang-xiong,Chang Ru-zhen,Qiu Li-juan,Wang Xiao-bo,Yang Chun-yan,Xu Ran,Zhang Li-feng,Lu Wei-guo,Wang Qian,Wei Su-hong,Yang Chun-ming,Wang Hui-cai,Wang Rui-zhen,Zhou Rong,Chen Huai-zhu. 2016

[16]Flavor characteristic analysis of soymilk prepared by different soybean cultivars and establishment of evaluation method of soybean cultivars suitable for soymilk processing. Shi Xiaodi,Li Jingyan,Guo Shuntang,Wang Shuming,Zhang Lei,Qiu Lijuan,Han Tianfu,Wang Qianyu,Chang Sam Kow-Ching.

[17]QTL effects and epistatic interaction for flowering time and branch number in a soybean mapping population of JapanesexChinese cultivars. Yang Guang,Xie Fu-ti,Zhai Hong,Wu Hong-yan,Zhang Xing-zheng,Wang Ya-ying,Li Yu-qiu,Hu Bo,Wang Lu,Xia Zheng-jun,Zhang Xing-zheng,Wang Ya-ying,Li Yu-qiu,Wang Lu,Yang Guang,Lu Shi-xiang,Wen Zi-xiang,Wang De-chun,Wang Shao-dong,Harada, Kyuya. 2017

[18]Genome-wide association studies dissect the genetic networks underlying agronomical traits in soybean. Fang, Chao,Ma, Yanming,Liu, Zhi,Wang, Zheng,Yang, Rui,Zhang, Min,Pan, Yi,Zhou, Guoan,Shen, Yanting,Liu, Shulin,Liu, Tengfei,Zhang, Jixiang,Zhu, Baoge,Tian, Zhixi,Wu, Shiwen,Yu, Hong,Qin, Hao,Yuan, Jia,Li, Jiayang,Wang, Guodong,Hu, Guanghui,Zhou, Zhengkui,Ren, Haixiang,Wang, Yanping,Du, Weiguang,Han, Dezhi,Yan, Hongrui,Yuan, Xiaohui,Kong, Fanjiang,Liu, Baohui,Zhang, Zhiwu,Fang, Chao,Liu, Zhi,Shen, Yanting,Liu, Shulin,Liu, Tengfei,Zhang, Jixiang,Wang, Guodong,Tian, Zhixi. 2017

[19]Construction of Two Suppression Subtractive Hybridization Libraries and Identification of Salt-Induced Genes in Soybean. Li Liang,Wang Wei-qi,Wu Cun-xiang,Han Tian-fu,Hou Wen-sheng,Li Liang. 2012

[20]Genetic contribution of foreign germplasm to elite Chinese soybean (Glycine max) cultivars revealed by SSR markers. Qin Jun,Chen Weiyuan,Guan Rongxia,Jiang Chengxi,Li Yinghui,Fu Yashu,Liu Zhangxiong,Zhang Mengchen,Chang Ruzhen,Qiu Lijuan. 2006

作者其他论文 更多>>
置顶
购物车
反馈

© 京ICP备09089781号-29 主办单位：黑龙江省农业科学院

学术资源： 中国农业科学院 农业专业知识服务系统 农科联盟资源共建共享平台 中国农业科技文献与信息服务平台 中国农业期刊集成服务平台