Development of a fertile genetic bridge between Trifolium ambiguum M. Bieb. and T. repens L

Trifolium ambiguum M. Bieb and T. repens L. are taxonomically related but very difficult to cross. The rare hybrids so far reported between these two species were obtained only by embryo culture. This difficulty has been overcome in the present research by the creation of a "fertile bridge"...

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Veröffentlicht in:Theoretical and applied genetics 1997-09, Vol.95 (4), p.678-690
Hauptverfasser: Hussain, S.W, Williams, W.M
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description Trifolium ambiguum M. Bieb and T. repens L. are taxonomically related but very difficult to cross. The rare hybrids so far reported between these two species were obtained only by embryo culture. This difficulty has been overcome in the present research by the creation of a "fertile bridge" between T. ambiguum and T. repens. Characters of interest can now be transferred from T. ambiguum to T. repens by using this "fertile bridge" without the use of sophisticated techniques. An array of backcross progenies was generated from crosses between a T. ambiguum x T. repens F1 hybrid (8 chi H-435) and its parental species. The 8 chi hybrid was cross-fertile only with T. repens and resulted in 145 seeds from 1578 reciprocal crosses. Eleven of nineteen initially grown BC1F1 plants were all hexaploid with an average pollen stainability of 41.6%. A high frequency of multivalents at metaphase-I indicated that both autosyndetic and allosyndetic pairing occurred. Backcrosses of 6 chi BC1F1 plants to T. repens resulted in 5 chi BC1F1 plants with an average pollen stainability of 59.3%. On the other hand, 6 chi BC1F1 X 6 chi T. ambiguum crosses did not produce any seed and only two pentaploid plants were obtained from 6 chi BC1F1 X 4 chi T. ambiguum crosses. The difficulty encountered in generating 6 chi backcross progeny with 6 chi T. ambiguum was overcome by intercrossing the 6 chi BC1F1 plants and producing 6 chi BC1F2 plants with an average pollen stainability of 65.8%. One of these 6 chi BC1F2 plants was cross-compatible as a female with 6 chi T. ambiguum and resulted in CBC2 plants that were all cross-compatible with 6 chi T. ambiguum. The 6 chi BC1F2 plants are likely to be superior to 6 chi BC1F1 progeny, as they have exhibited better expression of the combined rhizomatous and stoloniferous growth habit, improved fertility, more frequent nodal rooting and heavier nodulation. Consequently, the 6 chi BC1F2 plants can either be used directly in the selection programme or as a "fertile bridge" between the two parental species. The present work has resulted in the development of a series of fertile hybrids by the manipulation of chromosome numbers, combining the agronomic characteristics of the parent species in varying genome balances and at a range of ploidy levels. It is concluded that the initial sterility of the primary interspecific hybrids need not be a barrier to successful inter-breeding.
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Bieb. and T. repens L</title><title>Theoretical and applied genetics</title><description>Trifolium ambiguum M. Bieb and T. repens L. are taxonomically related but very difficult to cross. The rare hybrids so far reported between these two species were obtained only by embryo culture. This difficulty has been overcome in the present research by the creation of a "fertile bridge" between T. ambiguum and T. repens. Characters of interest can now be transferred from T. ambiguum to T. repens by using this "fertile bridge" without the use of sophisticated techniques. An array of backcross progenies was generated from crosses between a T. ambiguum x T. repens F1 hybrid (8 chi H-435) and its parental species. The 8 chi hybrid was cross-fertile only with T. repens and resulted in 145 seeds from 1578 reciprocal crosses. Eleven of nineteen initially grown BC1F1 plants were all hexaploid with an average pollen stainability of 41.6%. A high frequency of multivalents at metaphase-I indicated that both autosyndetic and allosyndetic pairing occurred. Backcrosses of 6 chi BC1F1 plants to T. repens resulted in 5 chi BC1F1 plants with an average pollen stainability of 59.3%. On the other hand, 6 chi BC1F1 X 6 chi T. ambiguum crosses did not produce any seed and only two pentaploid plants were obtained from 6 chi BC1F1 X 4 chi T. ambiguum crosses. The difficulty encountered in generating 6 chi backcross progeny with 6 chi T. ambiguum was overcome by intercrossing the 6 chi BC1F1 plants and producing 6 chi BC1F2 plants with an average pollen stainability of 65.8%. One of these 6 chi BC1F2 plants was cross-compatible as a female with 6 chi T. ambiguum and resulted in CBC2 plants that were all cross-compatible with 6 chi T. ambiguum. 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Bieb. and T. repens L</atitle><jtitle>Theoretical and applied genetics</jtitle><date>1997-09-01</date><risdate>1997</risdate><volume>95</volume><issue>4</issue><spage>678</spage><epage>690</epage><pages>678-690</pages><issn>0040-5752</issn><eissn>1432-2242</eissn><coden>THAGA6</coden><abstract>Trifolium ambiguum M. Bieb and T. repens L. are taxonomically related but very difficult to cross. The rare hybrids so far reported between these two species were obtained only by embryo culture. This difficulty has been overcome in the present research by the creation of a "fertile bridge" between T. ambiguum and T. repens. Characters of interest can now be transferred from T. ambiguum to T. repens by using this "fertile bridge" without the use of sophisticated techniques. An array of backcross progenies was generated from crosses between a T. ambiguum x T. repens F1 hybrid (8 chi H-435) and its parental species. The 8 chi hybrid was cross-fertile only with T. repens and resulted in 145 seeds from 1578 reciprocal crosses. Eleven of nineteen initially grown BC1F1 plants were all hexaploid with an average pollen stainability of 41.6%. A high frequency of multivalents at metaphase-I indicated that both autosyndetic and allosyndetic pairing occurred. Backcrosses of 6 chi BC1F1 plants to T. repens resulted in 5 chi BC1F1 plants with an average pollen stainability of 59.3%. On the other hand, 6 chi BC1F1 X 6 chi T. ambiguum crosses did not produce any seed and only two pentaploid plants were obtained from 6 chi BC1F1 X 4 chi T. ambiguum crosses. The difficulty encountered in generating 6 chi backcross progeny with 6 chi T. ambiguum was overcome by intercrossing the 6 chi BC1F1 plants and producing 6 chi BC1F2 plants with an average pollen stainability of 65.8%. One of these 6 chi BC1F2 plants was cross-compatible as a female with 6 chi T. ambiguum and resulted in CBC2 plants that were all cross-compatible with 6 chi T. ambiguum. The 6 chi BC1F2 plants are likely to be superior to 6 chi BC1F1 progeny, as they have exhibited better expression of the combined rhizomatous and stoloniferous growth habit, improved fertility, more frequent nodal rooting and heavier nodulation. Consequently, the 6 chi BC1F2 plants can either be used directly in the selection programme or as a "fertile bridge" between the two parental species. The present work has resulted in the development of a series of fertile hybrids by the manipulation of chromosome numbers, combining the agronomic characteristics of the parent species in varying genome balances and at a range of ploidy levels. It is concluded that the initial sterility of the primary interspecific hybrids need not be a barrier to successful inter-breeding.</abstract><cop>Heidelberg</cop><cop>Berlin</cop><pub>Springer</pub><doi>10.1007/s001220050612</doi><tpages>13</tpages></addata></record>
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identifier ISSN: 0040-5752
ispartof Theoretical and applied genetics, 1997-09, Vol.95 (4), p.678-690
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1432-2242
language eng
recordid cdi_proquest_miscellaneous_968177287
source SpringerNature Journals
subjects backcrossing
Biological and medical sciences
chromosome number
chromosome pairing
chromosomes
Classical genetics, quantitative genetics, hybrids
Clover
Fundamental and applied biological sciences. Psychology
Genetic aspects
Genetics
Genetics of eukaryotes. Biological and molecular evolution
genomics
hexaploidy
intercrossing
interspecific hybridization
male fertility
meiosis
multivalents
Physiological aspects
plant breeding
Plant genetics
pollen
Pteridophyta, spermatophyta
Quantitative genetics
Trifolium ambiguum
Trifolium repens
Vegetals
title Development of a fertile genetic bridge between Trifolium ambiguum M. Bieb. and T. repens L
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