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真核细胞及其细胞体:细胞学说的修订

Eukaryotic cells and their cell bodies: Cell Theory revised.

作者信息

Baluska Frantisek, Volkmann Dieter, Barlow Peter W

机构信息

Institute of Cellular and Molecular Botany, University of Bonn, Kirschallee 1, 53175 Bonn, Germany.

出版信息

Ann Bot. 2004 Jul;94(1):9-32. doi: 10.1093/aob/mch109. Epub 2004 May 20.

Abstract

BACKGROUND

Cell Theory, also known as cell doctrine, states that all eukaryotic organisms are composed of cells, and that cells are the smallest independent units of life. This Cell Theory has been influential in shaping the biological sciences ever since, in 1838/1839, the botanist Matthias Schleiden and the zoologist Theodore Schwann stated the principle that cells represent the elements from which all plant and animal tissues are constructed. Some 20 years later, in a famous aphorism Omnis cellula e cellula, Rudolf Virchow annunciated that all cells arise only from pre-existing cells. General acceptance of Cell Theory was finally possible only when the cellular nature of brain tissues was confirmed at the end of the 20th century. Cell Theory then rapidly turned into a more dogmatic cell doctrine, and in this form survives up to the present day. In its current version, however, the generalized Cell Theory developed for both animals and plants is unable to accommodate the supracellular nature of higher plants, which is founded upon a super-symplasm of interconnected cells into which is woven apoplasm, symplasm and super-apoplasm. Furthermore, there are numerous examples of multinucleate coenocytes and syncytia found throughout the eukaryote superkingdom posing serious problems for the current version of Cell Theory.

SCOPE

To cope with these problems, we here review data which conform to the original proposal of Daniel Mazia that the eukaryotic cell is composed of an elemental Cell Body whose structure is smaller than the cell and which is endowed with all the basic attributes of a living entity. A complement to the Cell Body is the Cell Periphery Apparatus, which consists of the plasma membrane associated with other periphery structures. Importantly, boundary structures of the Cell Periphery Apparatus, although capable of some self-assembly, are largely produced and maintained by Cell Body activities and can be produced from it de novo. These boundary structures serve not only as mechanical support for the Cell Bodies but they also protect them from the hostile external environment and from inappropriate interactions with adjacent Cell Bodies within the organism.

CONCLUSIONS

From the evolutionary perspective, Cell Bodies of eukaryotes are proposed to represent vestiges of hypothetical, tubulin-based 'guest' proto-cells. After penetrating the equally hypothetical actin-based 'host' proto-cells, tubulin-based 'guests' became specialized for transcribing, storing and partitioning DNA molecules via the organization of microtubules. The Cell Periphery Apparatus, on the other hand, represents vestiges of the actin-based 'host' proto-cells which have become specialized for Cell Body protection, shape control, motility and for actin-mediated signalling across the plasma membrane.

摘要

背景

细胞学说,也被称为细胞教条,指出所有真核生物均由细胞组成,且细胞是生命中最小的独立单位。自1838年/1839年植物学家马蒂亚斯·施莱登和动物学家西奥多·施旺提出细胞是构成所有动植物组织的基本元素这一原则以来,细胞学说对生物学的发展产生了深远影响。大约20年后,鲁道夫·菲尔绍用一句著名的格言“Omnis cellula e cellula”(细胞来自细胞)宣告所有细胞仅源自已存在的细胞。直到20世纪末脑组织的细胞性质得到证实时,细胞学说才最终被广泛接受。随后,细胞学说迅速演变成一种更为教条的细胞教条,并以这种形式一直延续至今。然而,在其当前版本中,为动植物共同发展而来的广义细胞学说无法适应高等植物的超细胞性质,高等植物的超细胞性质建立在相互连接的细胞的超胞质基础之上,其中交织着质外体、共质体和超质外体。此外,在整个真核生物超界中发现了许多多核共质体和融合细胞的例子,这给当前版本的细胞学说带来了严重问题。

范围

为了解决这些问题,我们在此回顾一些数据,这些数据符合丹尼尔·马齐亚最初的提议,即真核细胞由一个基本的细胞体组成,其结构比细胞小,并具有生物实体的所有基本属性。细胞体的补充部分是细胞外周装置,它由与其他外周结构相关的质膜组成。重要的是,细胞外周装置的边界结构虽然能够进行一些自我组装,但在很大程度上是由细胞体的活动产生和维持的,并且可以从细胞体重新产生。这些边界结构不仅为细胞体提供机械支撑,还保护它们免受恶劣的外部环境影响,以及避免与生物体内相邻细胞体发生不适当的相互作用。

结论

从进化的角度来看,真核生物的细胞体被认为是基于微管的假设性“客”原细胞的遗迹。基于微管的“客”原细胞在穿透同样假设的基于肌动蛋白的“主”原细胞后,通过微管的组织专门用于转录、储存和分配DNA分子。另一方面,细胞外周装置代表了基于肌动蛋白的“主”原细胞的遗迹,这些遗迹已专门用于细胞体保护、形状控制、运动以及通过质膜进行肌动蛋白介导的信号传导。

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