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海蛇和海蝰的热生物学。

Thermal biology of sea snakes and sea kraits.

机构信息

Earth and Environmental Sciences, James Cook University, Townsville, QLD 4811, Australia.

出版信息

Integr Comp Biol. 2012 Aug;52(2):257-73. doi: 10.1093/icb/ics080. Epub 2012 Jun 4.

DOI:10.1093/icb/ics080
PMID:22669175
Abstract

Temperature probably had no direct effect on the evolution of sea kraits within their center of origin, a geologically stable thermal zone straddling the equator, but may have indirectly affected expansions and contractions in distributions beyond that zone through global fluctuations that caused alternation of higher and lower sea levels. The northern limit of the Laticauda colubrina complex seems to be the 20°C isotherm; in the south, the range does not reach that isotherm because there is no land (also a habitat requirement of sea kraits) within the zone of suitable temperature. The relationship of temperature to the pattern of geographic variation in morphology supports either the hypothesis of peripheral convergence or the developmental hypothesis but does not distinguish between them. Quadratic surfaces relating cumulative scores for coloration and morphological characters to global position showed a strong latitudinal component and an even stronger longitudinal one in which the direction of the latitudinal effect was reversed between east and west. A multivariate analysis revealed that while morphological characters vary significantly by location and climate when tested separately, when the influence of location on morphology is taken into account, no residual relationship between climate and morphology remains. Most marine snakes have mean upper temperature tolerances between 39°C and 40°C and operate at temperatures much nearer their upper thermal limits than their lower limits but still avoid deleterious extremes by diving from excessively hot water to deeper, cooler strata, and by surfacing when water is cold. At the surface in still water in sunlight, Pelamis can maintain its body temperature slightly above that of the water, but whether this is significant in nature is questionable. As temperature falls below 18-20°C, survival time is progressively reduced, accompanied by the successive occurrence of cessation of feeding, cessation of swimming, and failure to orient. Acclimation does not seem to be in this species' repertoire. In the water column, marine snakes track water temperature; on land, sea kraits can thermoregulate by basking, selecting favorable locations, and by kleptothermy. Laticauda colubrina adjusts its reproductive cycle geographically in ways that avoid breeding in the coldest months. Mean voluntary diving time is not temperature-dependent within the normal range of temperatures experienced by marine snakes in the field, but is reduced in water colder than 20°C. On land, much as while diving in the sea, sea kraits maintain long periods of apnea; intervals between breaths are inversely related to temperature.

摘要

温度可能对海蛇在起源中心的进化没有直接影响,因为起源中心是一个横跨赤道的地质稳定热区,但通过导致海平面高低交替的全球波动,温度可能间接地影响到该区域以外的分布的扩张和收缩。长吻海蛇复合体的北限似乎是 20°C 等温水线;在南部,该范围没有达到该等温线,因为在适宜温度范围内没有陆地(也是海蛇的栖息地要求)。温度与形态地理变异模式的关系支持边缘趋同假说或发育假说,但不能区分它们。将颜色和形态特征的累积得分与全球位置相关的二次曲面显示出很强的纬度成分和更强的经度成分,其中纬度效应的方向在东西方向上是相反的。多元分析表明,虽然当分别测试时,形态特征因位置和气候而异,但当考虑位置对形态的影响时,气候与形态之间不再存在剩余关系。大多数海蛇的平均上限温度容忍度在 39°C 和 40°C 之间,并且它们的工作温度更接近上限温度,而不是下限温度,但仍通过从过热的水潜水到更深、更凉爽的层,以及在水变冷时浮出水面来避免有害的极端温度。在阳光直射下的静水中,pelamis 可以将体温保持在略高于水温的水平,但这在自然界中是否有意义是值得怀疑的。当温度降至 18-20°C 以下时,存活时间逐渐缩短,伴随着摄食停止、游泳停止和定向失败的相继发生。这种物种似乎没有适应能力。在水柱中,海蛇跟踪水温;在陆地上,海蛇可以通过晒太阳、选择有利位置和通过盗热来调节体温。长吻海蛇在地理上调整其生殖周期,以避免在最寒冷的月份繁殖。在海洋蛇类在野外经历的正常温度范围内,自愿潜水时间与温度无关,但在低于 20°C 的水中会减少。在陆地上,就像在海里潜水一样,海蛇会长时间暂停呼吸;呼吸间隔与温度成反比。

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