Lost in translation: What we have learned from attributes that do not translate from Arabidopsis to other plants.

Adrienne H K Roeder,Andrew Bent,John T Lovell,John K McKay,Armando Bravo,Karina Medina-Jimenez,Kevin W Morimoto,Siobhán M Brady,Lei Hua,Julian M Hibberd,Silin Zhong,Francesca Cardinale,Ivan Visentin,Claudio Lovisolo,Matthew A Hannah,Alex A R Webb
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Abstract

Research in Arabidopsis thaliana has a powerful influence on our understanding of gene functions and pathways. However, not everything translates from Arabidopsis to crops and other plants. Here, a group of experts consider instances where translation has been lost and why such translation is not possible or is challenging. First, despite great efforts, floral dip transformation has not succeeded in other species outside Brassicaceae. Second, due to gene duplications and losses throughout evolution, it can be complex to establish which genes are orthologs of Arabidopsis genes. Third, during evolution Arabidopsis has lost arbuscular mycorrhizal symbiosis. Fourth, other plants have evolved specialized cell types that are not present in Arabidopsis. Fifth, similarly, C4 photosynthesis cannot be studied in Arabidopsis, which is a C3 plant. Sixth, many other plant species have larger genomes, which has given rise to innovations in transcriptional regulation that are not present in Arabidopsis. Seventh, phenotypes such as acclimation to water stress can be challenging to translate due to different measurement strategies. And eighth, while the circadian oscillator is conserved, there are important nuances in the roles of circadian regulators in crop plants. A key theme emerging across these vignettes is that even when translation is lost, insights can still be gained through comparison with Arabidopsis.
翻译中的迷失:我们从拟南芥的特性中学到的东西,不能从拟南芥转化为其他植物。
拟南芥的研究对我们对基因功能和途径的理解有很大的影响。然而,并不是所有的东西都能从拟南芥转化为农作物和其他植物。在这里,一组专家考虑了翻译丢失的情况,以及为什么这种翻译是不可能的或具有挑战性的。首先,尽管付出了巨大的努力,但在芸苔科以外的其他物种中,花浸转化尚未成功。其次,由于基因在进化过程中的复制和丢失,确定哪些基因是拟南芥基因的同源物可能很复杂。第三,在进化过程中,拟南芥失去了丛枝菌根共生关系。第四,其他植物进化出了拟南芥中不存在的特殊细胞类型。第五,同样,C4光合作用不能在拟南芥中进行研究,拟南芥是C3植物。第六,许多其他植物物种具有更大的基因组,这导致了在转录调控方面的创新,而这在拟南芥中并不存在。第七,由于不同的测量策略,表型(如对水分胁迫的适应)可能具有挑战性。第八,虽然昼夜节律振荡器是保守的,但在作物植物中,昼夜节律调节器的作用有重要的细微差别。在这些小插曲中出现的一个关键主题是,即使翻译丢失,仍然可以通过与拟南芥的比较获得见解。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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