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鲻鱼对缺氧的反射性心血管呼吸反应及其受被捕食威胁和水体浑浊度的行为调节

Reflex cardioventilatory responses to hypoxia in the flathead gray mullet (Mugil cephalus) and their behavioral modulation by perceived threat of predation and water turbidity.

作者信息

Shingles A, McKenzie D J, Claireaux G, Domenici P

机构信息

International Marine Centre, Località Sa Mardini, 09072 Torregrande (Or), Italy.

出版信息

Physiol Biochem Zool. 2005 Sep-Oct;78(5):744-55. doi: 10.1086/432143. Epub 2005 Jul 28.

DOI:10.1086/432143
PMID:16052452
Abstract

In hypoxia, gray mullet surface to ventilate well-oxygenated water in contact with air, an adaptive response known as aquatic surface respiration (ASR). Reflex control of ASR and its behavioral modulation by perceived threat of aerial predation and turbid water were studied on mullet in a partly sheltered aquarium with free surface access. Injections of sodium cyanide (NaCN) into either the bloodstream (internal) or ventilatory water stream (external) revealed that ASR, hypoxic bradycardia, and branchial hyperventilation were stimulated by chemoreceptors sensitive to both systemic and water O2 levels. Sight of a model avian predator elicited bradycardia and hypoventilation, a fear response that inhibited reflex hyperventilation following external NaCN. The time lag to initiation of ASR following NaCN increased, but response intensity (number of events, time at the surface) was unchanged. Mullet, however, modified their behavior to surface under shelter or near the aquarium edges. Turbid water abolished the fear response and effects of the predator on gill ventilation and timing of ASR following external NaCN, presumably because of reduced visibility. However, in turbidity, mullet consistently performed ASR under shelter or near the aquarium edges. These adaptive modulations of ASR behavior would allow mullet to retain advantages of the chemoreflex when threatened by avian predators or when unable to perceive potential threats in turbidity.

摘要

在缺氧状态下,鲻鱼会游到水面以让富含氧气的水与空气接触,这种适应性反应被称为水生表面呼吸(ASR)。在一个部分遮蔽且有自由水面的水族箱中,研究了鲻鱼对ASR的反射控制以及其行为如何受到空中捕食威胁和浑浊水的影响而发生调节。向血液循环系统(体内)或通气水流(体外)注射氰化钠(NaCN)表明,ASR、缺氧性心动过缓和鳃部过度通气受到对全身和水中氧气水平均敏感的化学感受器的刺激。看到模型鸟类捕食者会引发心动过缓和通气不足,这是一种恐惧反应,会抑制体外注射NaCN后的反射性过度通气。注射NaCN后开始ASR的时间延迟增加,但反应强度(事件数量、在水面停留的时间)不变。然而,鲻鱼改变了它们的行为,在遮蔽物下或水族箱边缘附近浮出水面。浑浊的水消除了恐惧反应以及捕食者对鳃通气和体外注射NaCN后ASR时间的影响,推测这是由于能见度降低所致。然而,在浑浊环境中,鲻鱼始终在遮蔽物下或水族箱边缘附近进行ASR。ASR行为的这些适应性调节将使鲻鱼在受到鸟类捕食者威胁或无法感知浑浊环境中的潜在威胁时,仍能保留化学反射的优势。

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