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从煎锅跳入空中——一种两栖红树林鱼类(红树鳉,Kryptolebias marmoratus)的出水行为与蒸发散热

Out of the frying pan into the air--emersion behaviour and evaporative heat loss in an amphibious mangrove fish (Kryptolebias marmoratus).

作者信息

Gibson Daniel J, Sylvester Emma V A, Turko Andy J, Tattersall Glenn J, Wright Patricia A

机构信息

Department of Integrative Biology, University of Guelph, Guelph, Ontario, Canada.

Department of Biological Sciences, Brock University, St Catharines, Ontario, Canada.

出版信息

Biol Lett. 2015 Oct;11(10). doi: 10.1098/rsbl.2015.0689.

Abstract

Amphibious fishes often emerse (leave water) when faced with unfavourable water conditions. How amphibious fishes cope with the risks of rising water temperatures may depend, in part, on the plasticity of behavioural mechanisms such as emersion thresholds. We hypothesized that the emersion threshold is reversibly plastic and thus dependent on recent acclimation history rather than on conditions during early development. Kryptolebias marmoratus were reared for 1 year at 25 or 30°C and acclimated as adults (one week) to either 25 or 30°C before exposure to an acute increase in water temperature. The emersion threshold temperature and acute thermal tolerance were significantly increased in adult fish acclimated to 30°C, but rearing temperature had no significant effect. Using a thermal imaging camera, we also showed that emersed fish in a low humidity aerial environment (30°C) lost significantly more heat (3.3°C min(-1)) than those in a high humidity environment (1.6°C min(-1)). In the field, mean relative humidity was 84%. These results provide evidence of behavioural avoidance of high temperatures and the first quantification of evaporative cooling in an amphibious fish. Furthermore, the avoidance response was reversibly plastic, flexibility that may be important for tropical amphibious fishes under increasing pressures from climatic change.

摘要

两栖鱼类在面对不利的水质条件时常常离水(离开水体)。两栖鱼类如何应对水温上升的风险,可能部分取决于诸如离水阈值等行为机制的可塑性。我们推测离水阈值具有可逆可塑性,因此取决于近期的驯化历史而非早期发育期间的条件。将红树鳉在25或30°C下饲养1年,并在成年期(一周)将其驯化至25或30°C,然后使其暴露于水温的急性升高环境中。驯化至30°C的成年鱼的离水阈值温度和急性热耐受性显著提高,但饲养温度没有显著影响。使用热成像相机,我们还表明,处于低湿度空气环境(30°C)中的离水鱼比处于高湿度环境(1.6°C每分钟)中的离水鱼散失的热量(3.3°C每分钟)明显更多。在野外,平均相对湿度为84%。这些结果提供了行为上避免高温的证据以及对两栖鱼类蒸发散热的首次量化。此外,这种避免反应具有可逆可塑性,这种灵活性对于面临气候变化压力不断增加的热带两栖鱼类可能很重要。

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