Characterization of new loci for Hessian fly resistance in common wheat

被引:0
作者
Yuanfeng Hao
Sue E. Cambron
Zhenbang Chen
Yingying Wang
Daniel E. Bland
G. David Buntin
Jerry W. Johnson
机构
[1] University of Georgia,Department of Crop and Soil Sciences
[2] Purdue University,USDA
[3] University of Georgia,ARS, Crop Production and Pest Control Research Unit, Department of Entomology
来源
Theoretical and Applied Genetics | 2013年 / 126卷
关键词
Common Wheat; Composite Interval Mapping Analysis; Percentage Resistance; Virulent Biotype; Entire Mapping Population;
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学科分类号
摘要
The discovery of several new loci for resistance to Hessian fly was reported here. QHf.uga-6AL, the late HR61 was recognized from wheat cultivar 26R61 on the distal end of 6AL with resistance to both biotypes E and vH13. It is the first gene or QTL found on this particular chromosome. QHf.uga-3DL and QHf.uga-1AL, physically assigned to the deletion bins 3DL2-0.27–0.81 and 1AL1-0.17–0.61, respectively, were detected for resistance to biotype vH13. Both QTL should represent new loci for Hessian fly resistance and the latter was detectable only in the late seedling stage when tolerance was evident. In addition, QHf.uga-6DS-C and QHf.uga-1AS had minor effect and were identified from the susceptible parent AGS 2000 for resistance to biotype E and vH13, respectively. QHf.uga-6DS-C is different from the known gene H13 on 6DS and QHf.uga-1AS is different from H9 gene cluster on 1AS. These loci also might be new components of Hessian fly resistance, although their LOD values were not highly significant. The QTL detections were all conducted on a RIL mapping population of 26R61/AGS 2000 with good genome coverage of molecular markers. The strategy used in the current study will serve as a good starting point for the discovery and mapping of resistance genes including tolerance to the pest and the closely linked markers will certainly be useful in selecting or pyramiding of these loci in breeding programs.
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页码:1067 / 1076
页数:9
相关论文
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