Hybrid progenies of the cross, Brassica campestris×B. oleracea. IV : Crossability of F2, B1 and hybrid plants, and their progenies

N. Inomata
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引用次数: 5

Abstract

Crossability was examined in the F2, B1 and hybrid plants, and the somatic chromosomes of their progenies were investigated. The F2 and B1 plants were obtained in the self- and open pollinations, and in the F1 hybrids backcrossed to both parents, respectively. The hybrid plants were obtained in the cross between F1 hybrids and diploid Brassica oleracea, and between F1 hybrids and B. napus. All F1 hybrids were produced by ovary culture in vitro in the cross between B. campestris and B. oleracea, and between B. campestris and autotetraploid B. oleracea. The plants examined were classified into three types. The first type had 29 chromosomes in root tip cells, and the second had 38 chromosomes. The third type of plants was the plants having chromosomes other than 29 or 38 chromosomes. Many different types of aneuploids were obtained in open pollination of the F2, B1 and hybrid plants, in the progenies of the F2, B1 and hybrid plants crossed to B. campestris, and B. napus. It was suggested that the different types of normal egg cell with one by one or little by little chromosome addition might be produced, and that some specific chromosome or chromosome group might increase or decrease the crossability in aneuploid production. It might be considered that there were genes related to fertility. It might be possible that the genes of B. campestris and B. oleracea could exchange reciprocally. Further selection had to be done for the production of a new type crop of B. napus which had been reported in a previous paper.
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杂交后代,芸苔campestris×B。oleracea。IV: F2、B1和杂交植株及其后代的杂交能力
研究了F2、B1和杂交植株的亲和性,并对其后代的体细胞染色体进行了研究。F2和B1植株分别在自花授粉和开放授粉中获得,在与双亲回交的F1杂种中获得。杂种F1与二倍体甘蓝、与甘蓝型油菜杂交获得杂种植株。所有F1杂交种均为油菜与甘蓝、油菜与同源四倍体甘蓝杂交的子房离体培养。所检查的植物分为三类。第一类在根尖细胞中有29条染色体,第二类有38条染色体。第三类植物是染色体不是29或38条的植物。在F2、B1和杂交植株的开放授粉中,在F2、B1和杂交植株与油菜和甘蓝型油菜杂交的后代中,获得了许多不同类型的非整倍体。结果表明,在非整倍体的产生过程中,可能产生不同类型的正常卵细胞,单个或少量添加染色体,某些特定的染色体或染色体群可能增加或降低杂交能力。可以认为有一些基因与生育能力有关。油菜芽孢杆菌和甘蓝芽孢杆菌的基因有可能相互交换。在前一篇文章中已经报道了一种新型甘蓝型油菜,需要进一步的选育。
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