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破风求生:用肠道呼吸空气的鱼类。

Breaking wind to survive: fishes that breathe air with their gut.

机构信息

Department of Biological Sciences, Towson University, Towson, MD 21252-0001, U.S.A.

出版信息

J Fish Biol. 2014 Mar;84(3):554-76. doi: 10.1111/jfb.12323. Epub 2014 Feb 6.

DOI:10.1111/jfb.12323
PMID:24502287
Abstract

Several taxonomically disparate groups of fishes have evolved the ability to extract oxygen from the air with elements of their gut. Despite perceived difficulties with balancing digestive and respiratory function, gut air breathing (GAB) has evolved multiple times in fishes and several GAB families are among the most successful fish families in terms of species numbers. When gut segments evolve into an air-breathing organ (ABO), there is generally a specialized region for exchange of gases where the gut wall has diminished, vascularization has increased, capillaries have penetrated into the luminal epithelium and surfactant is produced. This specialized region is generally separated from digestive portions of the gut by sphincters. GAB fishes tend to be facultative air breathers that use air breathing to supplement aquatic respiration in hypoxic waters. Some hindgut breathers may be continuous, but not obligate air breathers (obligate air breathers drown if denied access to air). Gut ABOs are generally used only for oxygen uptake; CO₂ elimination seems to occur via the gills and skin in all GAB fishes studied. Aerial ventilation in GAB fishes is driven primarily by oxygen partial pressure of the water (PO₂) and possibly also by metabolic demand. The effect of aerial ventilation on branchial ventilation and the cardiovascular system is complex and generalizations across taxa or ABO type are not currently possible. Blood from GAB fishes generally has a low blood oxygen partial pressure that half saturates haemoglobin (p50) with a very low erythrocytic nucleoside triphosphate concentration [NTP]. GAB behaviour in nature depends on the social and ecological context of the animal as well as on physiological factors.

摘要

一些在分类上不同的鱼类群体已经进化出了从肠道中提取氧气的能力。尽管在平衡消化和呼吸功能方面存在困难,但肠道空气呼吸(GAB)在鱼类中已经多次进化,并且一些 GAB 科在物种数量方面是最成功的鱼类科之一。当肠道段演变成呼吸空气的器官(ABO)时,通常会有一个专门的气体交换区域,其中肠道壁变薄,血管化增加,毛细血管穿透腔上皮,表面活性剂产生。这个专门的区域通常通过括约肌与肠道的消化部分隔开。GAB 鱼类通常是兼性空气呼吸者,它们在缺氧水域中利用空气呼吸来补充水生呼吸。一些后肠呼吸者可能是连续的,但不是必需的空气呼吸者(如果不给它们提供空气,必需的空气呼吸者会淹死)。肠道 ABO 通常仅用于氧气摄取;在所有研究过的 GAB 鱼类中,CO₂的排泄似乎通过鳃和皮肤进行。GAB 鱼类中的空气通气主要由水的氧气分压(PO₂)驱动,可能还由代谢需求驱动。空气通气对鳃呼吸和心血管系统的影响很复杂,目前还不可能对所有 GAB 鱼类或 ABO 类型进行概括。GAB 鱼类的血液中氧气分压通常较低,血红蛋白(p50)的半饱和值非常低,红细胞核苷三磷酸(NTP)浓度也很低。GAB 在自然界中的行为取决于动物的社会和生态背景以及生理因素。

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