Rapid, combinatorial analysis of membrane compartments in intact plants with a multicolor marker set

拟南芥 生物 高尔基体 细胞生物学 内体 蛋白质亚细胞定位预测 内膜系统 背景(考古学) 亚细胞定位 拟南芥 植物细胞 活体细胞成像 转运蛋白 膜蛋白 免疫电镜 蛋白质靶向 细胞 遗传学 突变体 基因 内质网 细胞质 抗体 古生物学 细胞内
作者
Niko Geldner,Valérie Dénervaud‐Tendon,Derek L. Hyman,Ulríke Mayer,York‐Dieter Stierhof,Joanne Chory
出处
期刊:Plant Journal [Wiley]
卷期号:59 (1): 169-178 被引量:579
标识
DOI:10.1111/j.1365-313x.2009.03851.x
摘要

Plant membrane compartments and trafficking pathways are highly complex, and are often distinct from those of animals and fungi. Progress has been made in defining trafficking in plants using transient expression systems. However, many processes require a precise understanding of plant membrane trafficking in a developmental context, and in diverse, specialized cell types. These include defense responses to pathogens, regulation of transporter accumulation in plant nutrition or polar auxin transport in development. In all of these cases a central role is played by the endosomal membrane system, which, however, is the most divergent and ill-defined aspect of plant cell compartmentation. We have designed a new vector series, and have generated a large number of stably transformed plants expressing membrane protein fusions to spectrally distinct, fluorescent tags. We selected lines with distinct subcellular localization patterns, and stable, non-toxic expression. We demonstrate the power of this multicolor 'Wave' marker set for rapid, combinatorial analysis of plant cell membrane compartments, both in live-imaging and immunoelectron microscopy. Among other findings, our systematic co-localization analysis revealed that a class of plant Rab1-homologs has a much more extended localization than was previously assumed, and also localizes to trans-Golgi/endosomal compartments. Constructs that can be transformed into any genetic background or species, as well as seeds from transgenic Arabidopsis plants, will be freely available, and will promote rapid progress in diverse areas of plant cell biology.
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