Nematode resistance of rape-radish chromosome addition lines

文献类型: 外文期刊

第一作者: Peterka, Herbert

作者: Peterka, Herbert;Budahn, Holger;Zhang, Shao Song;Li, Jin Bin

作者机构:

关键词: Brassicaceae;chromosomal effects;Heterodera schachtii;Meloidogyne hapla.

期刊名称:NEMATOLOGY ( 影响因子:1.442; 五年影响因子:1.485 )

ISSN: 1388-5545

年卷期: 2010 年 12 卷

页码:

收录情况: SCI

摘要: Oilseed radish is resistant to the beet cyst nematode (Heterodera schachtii Schmidt), interrupting the life cycle of this sedentary pathogen by blocking feeding cell development in the root. A complete set of nine disomic rape-radish chromosome additions, a to i, derived from a susceptible rapeseed parent as recipient and a resistant radish as chromosome donor, was assayed for nematode resistance. The addition line d exhibited the resistance level of the radish parent, confirming previous results that radish chromosome d carries a dominant gene, Hs1(Rph), for nematode resistance. It was investigated if Hs1Rph is effective against a further important sedentary parasite, the northern root-knot nematode Meloidogyne hapla. The set of chromosome addition lines and the parents, rape and radish, were inoculated with second-stage juveniles (J2) of M. hapla and the plant reaction was evaluated by counting the number of egg masses per root system. By contrast to the situation in H. schachtii, the radish parent as well as addition line d showed no resistance against M. hapla and was even more susceptible than rape. It was concluded that the resistance gene Hs1Rph, which inhibits syncytium development of H. schachtii, is ineffective against M. hapla, a nematode inducing giant cell formation. Most added radish chromosomes significantly changed the number of egg masses in the recipient rape towards higher susceptibility. Two chromosomes enhanced the egg mass number beyond that of the chromosome donor radish. However, one radish chromosome decreased the egg mass production in the corresponding addition line below that in rape. This wide range of effects of the individual radish chromosomes in the rape background indicates a quantitative inheritance of host suitability to M. hapla and a complex interaction between the pathogen and radish.

分类号:

  • 相关文献

[1]Intergeneric transfer of nematode resistance from Raphanus to Brassica using a series of rape-radish chromosome addition lines. Budahn, H.,Peterka, H.,Schrader, O.,Zhang, S.. 2006

[2]Chromosomal assignment of oil radish resistance to Meloidogyne incognita and M. javanica using a set of disomic rapeseed-radish chromosome addition lines. Zhang, Shaosong,Schliephake, Edgar,Budahn, Holger.

[3]Widespread and evolutionary analysis of a MITE family Monkey King in Brassicaceae. Dai, Shutao,Hou, Jinna,Long, Yan,Wang, Jing,Li, Cong,Xiao, Qinqin,Jiang, Xiaoxue,Zou, Xiaoxiao,Zou, Jun,Meng, Jinling,Hou, Jinna. 2015

[4]The complete chloroplast genome of Arabidopsis lyrata. Wu, Zhiqiang,Gu, Cuihua,Tembrock, Luke R.,Sun, Cheng. 2016

[5]Estimating Plasmodiophora brassicae gene expression in lines of B. rapa by RT-PCR. Wu, Li-yan,Li, Shi-kai,Gong, Ya-ju,Zhong, Li,He, Jiang-Ming,Siemens, Johannes,Ludwig-Mueller, Jutta. 2012

[6]Detection of Contarinia nasturtii (Diptera : Cecidomyiidae) in New York, a new pest of cruciferous plants in the United States. Kikkert, Julie R.,Hoepting, Christine A.,Wu, Qingjun,Wang, Ping,Baur, Robert,Shelton, Anthony M..

[7]Lineage-specific evolution of Methylthioalkylmalate synthases (MAMs) involved in glucosinolates biosynthesis. Zhang, Jifang,Wang, Xiaobo,Cheng, Feng,Wu, Jian,Liang, Jianli,Wang, Xiaowu,Zhang, Jifang,Yang, Wencai. 2015

[8]A 36-bp deletion in the alpha subunit of glutamate-gated chloride channel contributes to abamectin resistance in Plutella xylostella. Liu, Feng,Shi, Xiuzhen,Wu, Qingjun,Xu, Baoyun,Xie, Wen,Wang, Shaoli,Zhang, Youjun,Liang, Yanpo,Liu, Feng,Liu, Nannan.

[9]Syntenic gene analysis between Brassica rapa and other Brassicaceae species. Cheng, Feng,Wu, Jian,Fang, Lu,Wang, Xiaowu. 2012

[10]Glucosinolates in Chinese Brassica campestris vegetables: Chinese cabbage, purple cai-tai, choysum, pakehoi, and turnip. Chen, Xinjuan,Zhu, Zhujun,Zhu, Zhujun,Chen, Xinjuan,Gerendas, Joska,Zimmermann, Nadine. 2008

[11]HETEROLOGOUS EXPRESSION OF AN ALLIGATORWEED HIGH-AFFINITY POTASSIUM TRANSPORTER GENE ENHANCES SALINITY TOLERANCE IN ARABIDOPSIS THALIANA. Song, Zhizhong,Yang, Shunying,Jin, Man,Su, Yanhua,Song, Zhizhong,Yang, Shunying,Jin, Man,Zhu, Hong,Zhu, Hong. 2014

[12]Genome-wide identification, classification, and analysis of NADP-ME family members from 12 crucifer species. Tao, Peng,Li, Biyuan,Wang, Wuhong,Yue, Zhichen,Lei, Juanli,Zhao, Yanting,Zhong, Xinmin,Guo, Weiling.

[13]Temperature-Dependent Survival of Turnip Crinkle Virus-Infected Arabidopsis Plants Relies on an RNA Silencing-Based Defense That Requires DCL2, AG02, and HEN1. Zhang, Xiuchun,Zhang, Xiaofeng,Singh, Jasleen,Qu, Feng,Zhang, Xiuchun,Zhang, Xiaofeng,Li, Dawei.

[14]Dynamic transcriptome analysis reveals AP2/ERF transcription factors responsible for cold stress in rapeseed (Brassica napus L.). Du, Chunfang,Hu, Kaining,Liu, Chunqing,Tu, Jinxing,Fu, Tingdong,Du, Chunfang,Xian, Shuanshi,Fan, Jianchun.

[15]Myrosinases from root and leaves of Arabidopsis thaliana have different catalytic properties. Andersson, Derek,Bejai, Sarosh,Meijer, Johan,Chakrabarty, Romit,Zhang, Jiaming,Rask, Lars.

[16]Genetic and cytological analysis of a new spontaneous male sterility in radish (Raphanus sativus L.). Wang, Zhi-Wei,Gao, Lei,Zhou, Yuan,Wang, Ting,Wang, Zhi-Wei,Xiang, Chang Ping,Liu, Hai Zhou,Mei, Shi Yong.

作者其他论文 更多>>