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高尔基体在体内的有丝分裂解体

Mitotic disassembly of the Golgi apparatus in vivo.

作者信息

Misteli T, Warren G

机构信息

Cell Biology Laboratory, Imperial Cancer Research Fund, London, UK.

出版信息

J Cell Sci. 1995 Jul;108 ( Pt 7):2715-27. doi: 10.1242/jcs.108.7.2715.

DOI:10.1242/jcs.108.7.2715
PMID:7593312
Abstract

Populations enriched in prophase cells were obtained either by using a cell line with a temperature-sensitive mutation in the mitotic kinase, p34cdc2, or by treating cells with olomoucine, an inhibitor of this kinase. Both methods resulted in efficient and reversible block of the cells at the G2/M boundary. After cells were released from the cell cycle block, the morphological changes to the Golgi apparatus were characterised using both quantitative conventional electron microscopy and immuno-gold microscopy. The early mitotic phases were divided into six stages (G2 to pro-metaphase) based on the morphology of the nucleus. During prophase the cross-sectional length of Golgi stacks decreased prior to unstacking. At the same time, small vesicular profiles, typically 50-70 nm in diameter, accumulated in the vicinity of the stacks. The disappearance of Golgi stacks was accompanied by the transient appearance of tubular networks. By the time cells entered prometaphase, the stacks had completely disassembled and only clusters consisting of Golgi vesicles and short tubular elements were left. When cells were released from the G2/M boundary and pulsed briefly with [AlF4]- to prevent uncoating of transport vesicles, vesicular profiles with a morphology reminiscent of COP-coated vesicles appeared. These vesicular profiles were either associated with Golgi stacks or, at later stages, with clusters, but were formed at all stages of disassembly. Together these results provide further support for our model that continued budding of vesicles from the rims of Golgi cisternae is at least partly responsible for the disassembly of the Golgi apparatus.

摘要

通过使用在有丝分裂激酶p34cdc2中具有温度敏感突变的细胞系,或者通过用该激酶的抑制剂olomoucine处理细胞,获得了富含前期细胞的群体。两种方法都导致细胞在G2/M边界处有效且可逆地阻滞。在细胞从细胞周期阻滞中释放后,使用定量常规电子显微镜和免疫金显微镜对高尔基体的形态变化进行了表征。根据细胞核的形态,将有丝分裂早期分为六个阶段(G2期到前中期)。在前期,高尔基体堆叠的横截面长度在解堆叠之前减小。同时,直径通常为50-70nm的小泡状结构在堆叠附近积累。高尔基体堆叠的消失伴随着管状网络的短暂出现。当细胞进入前中期时,堆叠已完全解体,仅留下由高尔基体小泡和短管状元件组成的簇。当细胞从G2/M边界释放并用[AlF4]-短暂脉冲以防止转运小泡脱包被时,出现了形态类似于COP包被小泡的小泡状结构。这些小泡状结构要么与高尔基体堆叠相关,要么在后期与簇相关,但在解体的所有阶段都形成。这些结果共同为我们的模型提供了进一步的支持,即从高尔基体潴泡边缘持续出芽的小泡至少部分地导致了高尔基体的解体。

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Mitotic disassembly of the Golgi apparatus in vivo.高尔基体在体内的有丝分裂解体
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