Plant Breeding · 1994 · 92 citations · 12 references
AgricultureGeneticsPlant SciencesBreeding For Disease ResistanceHybrid BreedingPlant GeneticsCereal GeneticsHybrid Breeding In CerealsInsect ResistancePolyploid Crop ImprovementResistant Crop VarietiesHybrid Breeding In WheatInsect-resistant CropsIntrogression Of Resistance GenesPlant Resistance BreedingPlant Resistance GenesRust Disease Resistance GenesTriticale BreedingWheat Breeding
Abstract An octoploid triticale was derived from the F, of a Russian wheat aphid‐resistant rye, ‘Turkey 77’, and ‘Chinese Spring’ wheat. The alloploid was crossed to common wheat, and to ‘Imperial’ rye/‘Chinese Spring’ disomic addition lines. F 2 , progeny from these crosses were tested for Russian wheat aphid resistance and C‐banded. A resistance gene(s) was found to be associated with chromosome arm IRS of the ‘Turkey 77’ rye genome. A monotelosomic IRS (‘Turkey 77’) addition plant was then crossed with the wheat cultivar ‘Gamtoos’, which has the 1BL.1RS ‘Veery’ translocation. Unlike the IRS segment in ‘Gamtoos’, the ‘Turkey 77’‐derived 1 RS telosome did not express the rust resistance genes Sr31 and Ar26 , which could then be used as markers. From the F, a monotelosomic 1 RS addition plant that was also heterozygous for the 1BL. 1 RS translocation was selected and testerossed with an aphid‐susceptible common wheat, ‘Inia 66’ Meiotic pairing between the rye arms resulted in the recovery of five euploid Russian‐wheat‐aphid‐resistant plants. One recombinant also retained Sr31 and Lr26 and was selfed to produce translocation homozygotes.
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P. I. Payne, Kathyrn G. Corfield, Linda M. Holt et al. · Journal of the Science of Food and Agriculture · 1981 · 438 citations
Gary J. Puterka, William C. Black, Wilfried Steiner et al. · Heredity · 1993 · 146 citations · Full text