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在无细胞体系中由有丝分裂的高尔基体片段重新组装高尔基体堆叠

Reassembly of Golgi stacks from mitotic Golgi fragments in a cell-free system.

作者信息

Rabouille C, Misteli T, Watson R, Warren G

机构信息

Cell Biology Laboratory, Imperial Cancer Research Fund, London, United Kingdom.

出版信息

J Cell Biol. 1995 May;129(3):605-18. doi: 10.1083/jcb.129.3.605.

DOI:10.1083/jcb.129.3.605
PMID:7730399
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC2120448/
Abstract

Rat liver Golgi stacks were incubated with mitotic cytosol for 30 min at 37 degrees C to generate mitotic Golgi fragments comprising vesicles, tubules, and cisternal remnants. These were isolated and further incubated with rat liver cytosol for 60 min. The earliest intermediate observed by electron microscopy was a single, curved cisterna with tubular networks fused to the cisternal rims. Elongation of this cisterna was accompanied by stacking and further growth at the cisternal rims. Stacks also fused laterally so that the typical end product was a highly curved stack of 2-3 cisternae mostly enclosing an electron-lucent space. Reassembly occurred in the presence of nocodazole or cytochalasin B but not at 4 degrees C or in the absence of energy supplied in the form of ATP and GTP. Pretreatment of the mitotic fragments and cytosol with N-ethylmaleimide (NEM) also prevented reassembly. GTP gamma S and A1F prevented reassembly when added during fragmentation but not when added to the reassembly mixture. In fact, GTP gamma S stimulated reassembly such that all cisternae were stacked at the end of the incubation and comprised 40% of the total membrane. In contrast, microcystin inhibited stacking so that only single cisternae accumulated. Together these results provide a detailed picture of the reassembly process and open up the study of the architecture of the Golgi apparatus to a combined morphological and biochemical analysis.

摘要

将大鼠肝脏高尔基体堆叠物与有丝分裂胞质溶胶在37℃下孵育30分钟,以生成包含囊泡、小管和平行膜囊残余物的有丝分裂高尔基体片段。将这些片段分离出来,并与大鼠肝脏胞质溶胶进一步孵育60分钟。电子显微镜观察到的最早中间体是一个单一的弯曲平行膜囊,其管状网络与平行膜囊边缘融合。这个平行膜囊的延长伴随着堆叠以及在平行膜囊边缘的进一步生长。堆叠物也会侧向融合,因此典型的最终产物是一个高度弯曲的由2 - 3个平行膜囊组成的堆叠物,大多包围着一个电子透明空间。重新组装在诺考达唑或细胞松弛素B存在时发生,但在4℃或没有以ATP和GTP形式提供能量时不发生。用N - 乙基马来酰亚胺(NEM)预处理有丝分裂片段和胞质溶胶也会阻止重新组装。GTPγS和AlF在片段化过程中添加时会阻止重新组装,但在添加到重新组装混合物中时则不会。事实上,GTPγS会刺激重新组装,使得在孵育结束时所有平行膜囊都堆叠在一起,占总膜的40%。相比之下,微囊藻毒素会抑制堆叠,以至于只积累单个平行膜囊。这些结果共同提供了重新组装过程的详细图景,并为高尔基体结构的研究开辟了一条形态学和生物化学相结合的分析途径。

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