Marker-assisted selection of Verticillium wilt resistance in progeny populations of upland cotton derived from mass selection-mass crossing

文献类型： 外文期刊

第一作者： Li, Cheng-Qi

作者： Li, Cheng-Qi;Liu, Guan-Shen;Zhao, Hai-Hong;Wang, Li-Juan;Zhang, Xiao-Fei;Liu, Ying;Zhou, Wan-Yang;Wang, Qing-Lian;Yang, Liu-Liu;Li, Peng-Bo

作者机构：

关键词： Cotton;Mass selection-mass crossing;Verticillium wilt resistance;Marker-assisted selection (MAS)

期刊名称：EUPHYTICA （ 影响因子：1.895； 五年影响因子：2.181 ）

ISSN：

年卷期：

页码：

收录情况： SCI

摘要： Two progeny populations of upland cotton derived from mass selection-mass crossing, M3S2F5 and its family lines M3S2F5:6, were generated from 17 hybrid cotton lines derived from regional trials conducted in the Yellow River basin and Yangtze River basin in China. These populations were used to verify 39 reported molecular markers that were related to quantitative trait loci (QTLs) for Verticillium wilt resistance of cotton. Only 12 of 39 markers were polymorphic; 19 had no polymorphisms, and amplification failed for eight markers. The differences in disease grades of aa/AA genotype individuals for five markers, BNL3241, NAU1225, NAU1230, JESPR153, and BNL3031, reached either significant or highly significant levels in at least one population. These markers can thus be effectively used for marker-assisted selection (MAS) of the target trait. Especially for JESPR153 and BNL3031, the differences in disease grades of aa/AA genotype individuals both reached either significant or highly significant levels in the two populations. These two markers should be given preferential consideration when undertaking MAS. The two flanking markers were more effective than the single flanking marker for MAS of single-loci QTL. The selection effect will be greatly enhanced through a reasonable allocation of marker combinations for multi-locus QTL polymerization. When using multi-locus markers for multi-locus QTL-assisted polymerization breeding, the selection effect can be improved progressively by increasing the number of polymerization markers. The possible interaction of different QTLs or genetic backgrounds does not influence the selection effect. A combination of resistant genotypes and disease grade performance enabled final selection of three individuals resistant to Verticillium wilt.

分类号： S3

  • 相关文献

[1]Construction of a bacterial artificial chromosome library for Gossypium herbaceum var. africanum. Gao HaiYan,WANG XingFen,LIU Fang,PENG RenHai,ZHANG Yan,CHENG Hua,WANG KunBo. 2013

[2]Construction and characterization of a bacterial artificial chromosome library for the allotetraploid Gossypium tomentosum. F. Liu,Y.H. Wang,H.Y. Gao,C.Y. Wang,Z.L. Zhou,X.Y. Cai,X.X. Wang,Z.S. Zhang,K.B. Wang. 2015

[3]Heterologous Expression of the Cotton NBS-LRR Gene GbaNA1 Enhances Verticillium Wilt Resistance in Arabidopsis. Li, Nan-Yang,Zhou, Lei,Zhang, Dan-Dan,Li, Ting-Gang,Gui, Yue-Jing,Kong, Zhi-Qiang,Ma, Xue-Feng,Zhang, Wen-Qi,Li, Jun-Jiao,Chen, Jie-Yin,Dai, Xiao-Feng,Klosterman, Steven J.,Short, Dylan P. G.,Subbarao, Krishna V.. 2018

[4]Cloning and characterization of the Gossypium hirsutum major latex protein gene and functional analysis in Arabidopsis thaliana. Chen, Jie-Yin,Dai, Xiao-Feng.

[5]Identification of a Resistance Gene bls1 to Bacterial Leaf Streak in Wild Rice Oryza rufipogon Griff.. Li Rong-bai,Li Xiao-qiong,Liu Chi,Zhang Yue-xiong,Ma Zeng-feng,Yang Yong,He Wen-ai,Qiu Yong-fu,He Wen-ai,Huang Da-hui,Li Rong-bai,Qiu Yong-fu,Li Rong-bai,Song Jian-dong,Yang Hai-ning,Zheng Jia-xing,Huang Yue-yue. 2012

[6]Length of internode and spike: how do they contribute to plant height of wheat at an individual QTL level?. Wang, L.,Cui, F.,Ding, A. M.,Li, J.,Zhao, C. H.,Li, X. F.,Feng, D. S.,Wang, H. G.,Wang, L.,Wang, J. P.,Cui, F.,Ding, A. M.,Li, J..

[7]Marker assisted pyramiding of two brown planthopper resistance genes, Bph3 and Bph27 (t), into elite rice Cultivars. Liu, Yanling,Chen, Liangming,Liu, Yuqiang,Dai, Huimin,He, Jun,Kang, Haiyan,Pan, Gen,Huang, Jie,Qiu, Zeyu,Wang, Qi,Hu, Jinlong,Liu, Linglong,Chen, Yezhi,Cheng, Xianian,Jiang, Ling,Wan, Jianmin,Wan, Jianmin. 2016

[8]Mapping of the genetic determinant for grain size in rice using a recombinant inbred line (RIL) population generated from two elite indica parents. Liu, Dilin,Kang, Meihua,Wang, Feng,Liu, Wuge,Fu, Chongyun,Li, Jinhua,Zhu, Manshan,Zeng, Xueqin,Liao, Yilong,Liu, Zhenrong,Huang, Huijun,Liu, Dilin,Kang, Meihua,Wang, Feng,Liu, Wuge,Fu, Chongyun,Li, Jinhua,Zhu, Manshan,Zeng, Xueqin,Liao, Yilong,Liu, Zhenrong,Huang, Huijun.

[9]A Co-Dominant Marker BoE332 Applied to Marker-Assisted Selection of Homozygous Male-Sterile Plants in Cabbage (Brassica oleracea var. capitata L.). Chen Chen,Zhuang Mu,Fang Zhi-yuan,Wang Qing-biao,Zhang Yang-yong,Liu Yu-mei,Yang Li-mei,Chen Chen,Cheng Fei. 2013

[10]Histological and Ultrastructural Observation Reveals Significant Cellular Differences between Agrobacterium Transformed Embryogenic and Non-embryogenic Calli of Cotton. Shang, Hai-Hong,Liu, Chuan-Liang,Zhang, Chao-Jun,Li, Feng-Lian,Hong, Wei-Dong,Li, Fu-Guang.

[11]A simplified pruning method for profitable cotton production in the Yellow River valley of China. Dai, Jianlong,Luo, Zhen,Li, Weijiang,Tang, Wei,Zhang, Dongmei,Lu, Hequan,Li, Zhenhuai,Xin, Chengsong,Kong, Xiangqiang,Eneji, A. Egrinya,Dong, Hezhong.

[12]Dry mycelium of Penicillium chrysogenum induces expression of pathogenesis-related protein genes and resistance against wilt diseases in Bt transgenic cotton. Chen, Suiyun,Dong, Hezhong,Fan, Yuqin,Li, Weijiang,Cohen, Yigal. 2006

[13]Effects of Soil Salinity and Plant Density on Yield and Leaf Senescence of Field-Grown Cotton. Zhang, H. J.,Dong, H. Z.,Li, W. J.,Zhang, D. M.,Zhang, H. J.. 2012

[14]Removal of early fruiting branches impacts leaf senescence and yield by altering the sink/source ratio of field-grown cotton. Chen, Yizhen,Dong, Hezhong,Chen, Yizhen,Kong, Xiangqiang,Dong, Hezhong,Kong, Xiangqiang,Dong, Hezhong. 2018

[15]An Improved CTAB-Ammonium Acetate Method for Total RNA Isolation from Cotton. Ding, Qi,Zeng, Jun,He, Xin-Qiang,Zhao, Lu,Fan, Shou-Jin,Wang, Fu-Rong,Zhang, Jun. 2012

[16]Yield, quality and leaf senescence of cotton grown at varying planting dates and plant densities in the Yellow River Valley of China. Dong, HZ,Li, WJ,Tang, W,Li, ZH,Zhang, DM,Niu, YH. 2006

[17]Dry mycelium of Penicillium chrysogenum protects cotton plants against wilt diseases and increases yield under field conditions. Dong, HZ,Zhang, XK,Choen, Y,Zhou, Y,Li, WJ,Li, ZH. 2006

[18]Lint yield and nitrogen use efficiency of field-grown cotton vary with soil salinity and nitrogen application rate. Zhang, Dongmei,Li, Weijiang,Xin, Chengsong,Tang, Wei,Eneji, A. Egrinya,Dong, Hezhong,Eneji, A. Egrinya. 2012

[19]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

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

作者其他论文 更多>>

微信小程序