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Engineering calcium oxalate crystal formation in Arabidopsis.

机译:工程拟南芥中草酸钙的晶体形成。

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摘要

Many plants accumulate crystals of calcium oxalate. Just how these crystals form remains unknown. To gain insight into the mechanisms regulating calcium oxalate crystal formation, a crystal engineering approach was initiated utilizing the non-crystal-accumulating plant, Arabidopsis. The success of this approach hinged on the ability to transform Arabidopsis genetically into a calcium oxalate crystal-accumulating plant. To accomplish this transformation, two oxalic acid biosynthetic genes, obcA and obcB, from the oxalate-secreting phytopathogen, Burkholderia glumae were inserted into the Arabidopsis genome. The co-expression of these two bacterial genes in Arabidopsis conferred the ability not only to produce a measurable amount of oxalate but also to form crystals of calcium oxalate. Biochemical and cellular studies of crystal accumulation in Arabidopsis revealed features that are similar to those observed in the cells of crystal-forming plants. Thus, it appears that at least some of the basic components that comprise the calcium oxalate crystal formation machinery are conserved even in non-crystal-accumulating plants.
机译:许多植物积累草酸钙的晶体。这些晶体的形成方式仍然未知。为了深入了解草酸钙晶体形成的调控机制,人们开始采用晶体非积累性植物拟南芥进行晶体工程改造。这种方法的成功取决于将遗传拟南芥转化为草酸钙晶体积累植物的能力。为了完成此转化,将草酸分泌植物病原体 Burkholderia glumae 的两个草酸生物合成基因 obcA 和 obcB 插入到< i>拟南芥基因组。这两种细菌基因在拟南芥中的共表达不仅赋予了产生可测量量的草酸盐的能力,而且还赋予了草酸钙晶体的形成能力。对拟南芥中晶体积累的生化和细胞研究表明,其特征与成晶体植物细胞中观察到的特征相似。因此,似乎即使在非晶体积累的植物中,构成草酸钙晶体形成机器的至少一些基本组分也被保留。

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