Rossanese O W, Glick B S
Department of Molecular Genetics and Cell Biology, The University of Chicago, 920 East 58th Street, Chicago, IL 60637, USA.
Traffic. 2001 Sep;2(9):589-96. doi: 10.1034/j.1600-0854.2001.20901.x.
Eukaryotic cells use a variety of strategies to inherit the Golgi apparatus. During vertebrate mitosis, the Golgi reorganizes dramatically in a process that seems to be driven by the reversible fragmentation of existing Golgi structures and the temporary redistribution of Golgi components to the endoplasmic reticulum. Several proteins that participate in vertebrate Golgi inheritance have been identified, but their detailed functions remain unknown. A comparison between vertebrates and other eukaryotes reveals common mechanisms of Golgi inheritance. In many cell types, Golgi stacks undergo fission early in mitosis. Some cells exhibit a further Golgi breakdown that is probably due to a mitotic inhibition of membrane traffic. In all eukaryotes examined, Golgi inheritance involves either the partitioning of pre-existing Golgi elements between the daughter cells or the emergence of new Golgi structures from the endoplasmic reticulum, or some combination of these two pathways.
真核细胞采用多种策略来遗传高尔基体。在脊椎动物有丝分裂期间,高尔基体在一个似乎由现有高尔基体结构的可逆碎片化以及高尔基体成分向内质网的临时重新分布所驱动的过程中发生显著重组。已经鉴定出几种参与脊椎动物高尔基体遗传的蛋白质,但其详细功能仍不清楚。脊椎动物与其他真核生物之间的比较揭示了高尔基体遗传的共同机制。在许多细胞类型中,高尔基体堆叠在有丝分裂早期会发生裂变。一些细胞表现出进一步的高尔基体解体,这可能是由于有丝分裂对膜运输的抑制。在所有被检测的真核生物中,高尔基体遗传涉及要么在子细胞之间分配预先存在的高尔基体元件,要么从内质网中产生新的高尔基体结构,或者这两种途径的某种组合。