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液泡和细胞骨架的结构变化是支持中亚滨藜单细胞C4光合作用的两个细胞质区域发育的关键。

Structural changes in the vacuole and cytoskeleton are key to development of the two cytoplasmic domains supporting single-cell C(4) photosynthesis in Bienertia sinuspersici.

作者信息

Park Joonho, Knoblauch Michael, Okita Thomas W, Edwards Gerald E

机构信息

School of Biological Sciences, Institute of Biological Chemistry, Washington State University, Pullman, WA 99164-4236, USA.

出版信息

Planta. 2009 Jan;229(2):369-82. doi: 10.1007/s00425-008-0836-8. Epub 2008 Oct 30.

DOI:10.1007/s00425-008-0836-8
PMID:18972128
Abstract

Bienertia sinuspersici Akhani has an unusual mechanism of C4 photosynthesis which occurs within individual chlorenchyma cells. To perform C4, the mature cells have two cytoplasmic compartments consisting of a central (CCC) and a peripheral (PCC) domain containing dimorphic chloroplasts which are interconnected by cytoplasmic channels. Based on leaf development studies, young chlorenchyma cells have not developed the two cytoplasmic compartments and dimorphic chloroplasts. Fluorescent dyes which are targeted to membranes or to specific organelles were used to follow changes in cell structure and organelle distribution during formation of C4-type chlorenchyma. Chlorenchyma cell development was divided into four stages: 1-the nucleus and chloroplasts occupy much of the cytoplasmic space and only small vacuoles are formed; 2-development of larger vacuoles, formation of a pre-CCC with some scattered chloroplasts; 3-the vacuole expands, cells have directional growth; 4-mature stage, cells have become elongated, with a distinctive CCC and PCC joined by interconnecting cytoplasmic channels. By staining vacuoles with a fluorescent dye and constructing 3D images of chloroplasts, and by microinjecting a fluorescence dye into the vacuole of living cells, it was demonstrated that the mature cell has only one vacuole, which is traversed by cytoplasmic channels connecting the CCC with the PCC. Immunofluorescent studies on isolated chlorenchyma cells treated with cytoskeleton disrupting drugs suspended in different levels of osmoticum showed that both microtubules and actin filaments are important in maintaining the cytoplasmic domains. With prolonged exposure of plants to dim light, the cytoskeleton undergoes changes and there is a dramatic shift of the CCC from the center toward the distal end of the cell.

摘要

比氏辛氏草具有一种独特的C4光合作用机制,该机制发生在单个叶肉细胞内。为了进行C4光合作用,成熟细胞有两个细胞质区室,一个是中央区室(CCC),另一个是外周区室(PCC),其中含有二型叶绿体,它们通过细胞质通道相互连接。基于叶片发育研究,幼嫩的叶肉细胞尚未发育出这两个细胞质区室和二型叶绿体。利用靶向细胞膜或特定细胞器的荧光染料来追踪C4型叶肉细胞形成过程中细胞结构和细胞器分布的变化。叶肉细胞发育分为四个阶段:1-细胞核和叶绿体占据大部分细胞质空间,仅形成小液泡;2-较大液泡发育,形成带有一些分散叶绿体的前中央区室;3-液泡扩大,细胞有定向生长;4-成熟阶段,细胞伸长,具有独特的中央区室和外周区室,通过相互连接的细胞质通道相连。通过用荧光染料对液泡进行染色并构建叶绿体的三维图像,以及通过将荧光染料显微注射到活细胞的液泡中,证明成熟细胞只有一个液泡,连接中央区室和外周区室的细胞质通道穿过该液泡。对用悬浮在不同渗透压水平的细胞骨架破坏药物处理的分离叶肉细胞进行免疫荧光研究表明,微管和肌动蛋白丝在维持细胞质区室方面都很重要。随着植物长时间暴露在弱光下,细胞骨架会发生变化,中央区室会从细胞中心向细胞远端发生显著移位。

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本文引用的文献

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