生物
数量性状位点
近交系
杂种优势
特质
人口
遗传学
关联映射
基因组
基因
农学
单核苷酸多态性
基因型
混合的
计算机科学
社会学
人口学
程序设计语言
作者
Michael D. McMullen,Stephen Kresovich,Hector Sanchez Villeda,Peter J. Bradbury,Huihui Li,Qi Sun,Sherry Flint-García,Jeffry M. Thornsberry,Charlotte B. Acharya,Christopher A. Bottoms,Patrick J. Brown,Chris Browne,Magen S. Eller,Kate Guill,Carlos Harjes,Dallas E. Kroon,Nick Lepak,Sharon E. Mitchell,Brooke Peterson,Gaël Pressoir
出处
期刊:Science
[American Association for the Advancement of Science (AAAS)]
日期:2009-08-06
卷期号:325 (5941): 737-740
被引量:1076
标识
DOI:10.1126/science.1174320
摘要
Codifying Maize Modifications Maize, one of our most important crop species, has been the target of genetic investigation and experimentation for more than 100 years. Crossing two inbred lines tends to result in “better” offspring, in a process known as heterosis. Attempts to map the genetic loci that control traits important for farming have been made, but few have been successful (see the Perspective by Mackay ). Buckler et al. (p. 714 ) and McMullen et al. (p. 737 ) produced a genomic map of maize that relates recombination to genome structure. Even tremendous adaptations in very diverse species were produced by numerous, small additive steps. Differences in flowering time in maize among inbred lines were not caused by a few genes with large effects, but by the cumulative effects of numerous quantitative trait loci—each of which has only a small impact on the trait.
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