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呼吸空气鱼类鳃中富含线粒体细胞的分布。

The distribution of mitochondria-rich cells in the gills of air-breathing fishes.

作者信息

Lin Hui-Chen, Sung Wen-Ting

机构信息

Department of Biology, Tunghai University, Taichung 407, Taiwan, Republic of China.

出版信息

Physiol Biochem Zool. 2003 Mar-Apr;76(2):215-28. doi: 10.1086/374278.

DOI:10.1086/374278
PMID:12794675
Abstract

Respiration and ion regulation are the two principal functions of teleostean gills. Mainly found in the gill filaments of fish, mitochondria-rich cells (MRCs) proliferate to increase the ionoregulatory capacity of the gill in response to osmotic challenges. Gill lamellae consist mostly of pavement cells, which are the major site of gas exchange. Although lamellar MRCs have been reported in some fish species, there has been little discussion of which fish species are likely to have lamellar MRCs. In this study, we first compared the number of filament and lamellar MRCs in air-breathing and non-air-breathing fish species acclimated to freshwater and 5 g NaCl L(-1) conditions. An increase in filament MRCs was found in both air-breathing and non-air-breathing fish acclimated to freshwater. Lamellar MRCs were found only in air-breathing species, but the number of lamellar MRCs did not change significantly with water conditions, except in Periophthalmus cantonensis. Next, we surveyed the distribution of MRCs in the gills of 66 fish species (including 29 species from the previous literature) from 12 orders, 28 families, and 56 genera. Our hypothesis that lamellar MRCs are more likely to be found in air-breathing fishes was supported by a significant association between the presence of lamellar MRCs and the mode of breathing at three levels of systematic categories (species, genus, and family). Based on this integrative view of the multiple functions of fish gills, we should reexamine the role of MRCs in freshwater fish.

摘要

呼吸和离子调节是硬骨鱼鳃的两个主要功能。富含线粒体的细胞(MRCs)主要存在于鱼的鳃丝中,在应对渗透挑战时会增殖以增强鳃的离子调节能力。鳃小片主要由扁平细胞组成,是气体交换的主要部位。尽管在一些鱼类中已报道存在鳃小片MRCs,但对于哪些鱼类可能具有鳃小片MRCs的讨论很少。在本研究中,我们首先比较了适应淡水和5 g NaCl L(-1)条件的空气呼吸和非空气呼吸鱼类中鳃丝和鳃小片MRCs的数量。发现在适应淡水的空气呼吸和非空气呼吸鱼类中,鳃丝MRCs均增加。仅在空气呼吸物种中发现了鳃小片MRCs,但除了弹涂鱼外,鳃小片MRCs的数量并未随水环境条件而显著变化。接下来,我们调查了来自12目、28科和56属的66种鱼类(包括先前文献中的29种)鳃中MRCs的分布。我们的假设,即鳃小片MRCs更可能在空气呼吸鱼类中发现,在系统分类的三个层次(物种、属和科)上,鳃小片MRCs的存在与呼吸方式之间的显著关联得到了支持。基于对鱼鳃多种功能的这种综合观点,我们应该重新审视MRCs在淡水鱼中的作用。

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