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Arabidopsis to Rice. Applying Knowledge from a Weed to Enhance Our Understanding of a Crop Species

机译:拟南芥饭。运用杂草知识来增进对作物种类的了解

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摘要

Although Arabidopsis is well established as the premiere model species in plant biology, rice (Oryza sativa) is moving up fast as the second-best model organism. In addition to the availability of large sets of genetic, molecular, and genomic resources, two features make rice attractive as a model species: it represents the taxonomically distinct monocots and is a crop species. Plant structural genomics was pioneered on a genome-scale in Arabidopsis and the lessons learned from these efforts were not lost on rice. Indeed, the sequence and annotation of the rice genome has been greatly accelerated by method improvements made in Arabidopsis. For example, the value of full-length cDNA clones and deep expressed sequence tag resources, obtained in Arabidopsis primarily after release of the complete genome, has been recognized by the rice genomics community. For rice >250,000 expressed sequence tags and 28,000 full-length cDNA sequences are available prior to the completion of the genome sequence. With respect to tools for Arabidopsis functional genomics, deep sequence-tagged lines, inexpensive spotted oligonucleotide arrays, and a near-complete whole genome Affymetrix array are publicly available. The development of similar functional genomics resources for rice is in progress that for the most part has been more streamlined based on lessons learned from Arabidopsis. Genomic resource development has been essential to set the stage for hypothesis-driven research, and Arabidopsis continues to provide paradigms for testing in rice to assess function across taxonomic divisions and in a crop species.
机译:尽管拟南芥已被确立为植物生物学中的首屈一指的典范物种,但稻米(Oryza sativa)作为第二大典范生物正在迅速崛起。除了可获得大量遗传资源,分子资源和基因组资源外,水稻还具有两个特点,使其成为典范物种:它代表了分类学上独特的单子叶植物,是一种农作物。植物结构基因组学是在拟南芥属中以基因组规模开创的,从这些努力中学到的经验教训并没有在水稻上丢失。实际上,通过在拟南芥中进行的方法改进,大大加快了水稻基因组的序列和注释。例如,水稻基因组学界已经认识到主要在完整基因组释放后在拟南芥中获得的全长cDNA克隆和深表达序列标签资源的价值。对于水稻,> 250,000个表达的序列标签和28,000个全长cDNA序列可在基因组序列完成之前获得。关于拟南芥功能基因组学的工具,深序列标签的品系,廉价的斑点寡核苷酸阵列和接近完整的全基因组Affymetrix阵列是可公开获得的。水稻的类似功能基因组学资源的开发工作正在进行中,根据从拟南芥中吸取的教训,大部分情况下,这些资源已得到了进一步简化。基因组资源的开发对于为假设驱动的研究奠定基础至关重要,而拟南芥继续提供在水稻中进行测试的范例,以评估不同分类部门和作物物种的功能。

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