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鸊鷉目(鸟类,鸊鷉科)的无飞行能力:其在三个属中的独立演化。

FLIGHTLESSNESS IN GREBES (AVES, PODICIPEDIDAE): ITS INDEPENDENT EVOLUTION IN THREE GENERA.

作者信息

Livezey Bradley C

机构信息

Museum of Natural History, University of Kansas, Lawrence, KS, 66045.

出版信息

Evolution. 1989 Jan;43(1):29-54. doi: 10.1111/j.1558-5646.1989.tb04205.x.

DOI:10.1111/j.1558-5646.1989.tb04205.x
PMID:28568486
Abstract

The morphological bases of flightlessness in three genera of grebes were studied using 790 study skins, 322 skeletons, myological data from 40 anatomical specimens studied by Sanders (1967), and ancillary data on wing-loadings. Three species, Rollandia microptera, Podilymbus gigas, and Podiceps taczanowskii, are considered to be flightless; each is endemic to a high-altitude, neotropical lake or lake system. Compared to their flighted (capable of flight) sister-species, the three flightless species shared several broadly convergent characters: larger body mass and skeletal dimensions (exclusive of the sternal carina), reductions in relative lengths of wing, tail, and primary remiges, and reduction in the relative size of breast muscles. Rollandia microptera exhibited the greatest morphological differences from its flighted sister-species; these differences were comparable to intergeneric morphometric differences in magnitude and involved a tripling of body mass, a modal loss of one primary remex in each wing, absolute reduction of the sternal carina, flattening of proximal wing elements, a large morphometric shift in skeletal dimensions, an increase in the scapulocoracoid angle, and six qualitative differences in the pectoral musculature. Morphological differences between Podilymbus gigas and its flighted congener were comparatively minor; flightlessness in this species, if genuine, evidently results from an allometric increase in size combined with a large decrease in relative bulk of breast musculature and shift of alar muscle mass. Podiceps taczanowskii was intermediate in degree of anatomical difference from its flighted relatives, but was unique in its slight reduction in absolute length of the wings and decrease in absolute widths of the skeletal wing elements. Multivariate differences in external characters associated with flightlessness were strongly convergent in the three genera, but multivariate differences in skeletal proportions differed substantially among genera in detail. An estimate of wing-loading indicated that Podilymbus gigas and, especially, Podiceps taczanowskii may be only "flight-impaired" rather than flightless. Relative wing lengths and conformation of sterna in Rollandia microptera and Podiceps taczanowskii indicate that morphological changes associated with flightlessness are paedomorphic; intraspecific allometry in Rollandia indicates that the underlying ontogenetic change may involve a delay in the start of pectoral-alar development (postdisplacement). Flightlessness in grebes, a family typified by moderately heavy wing-loadings and relatively small pectoral muscles, is related in all three instances to the year-round residency afforded by large lakes at low latitudes. The primary selective advantages of morphological changes leading to flightlessness probably are related to the thermodynamic advantages of increased body sizes, feeding specialization associated with enlargement of the bill, and reduction of intraspecific niche overlap through increased sexual dimorphism; the changes are also possibly related to economy of pectoral-alar development.

摘要

利用790个研究标本、322具骨骼、桑德斯(1967年)研究的40个解剖标本的肌肉学数据以及关于翼载荷的辅助数据,对三个鸊鷉属类群中丧失飞行能力的形态学基础进行了研究。三种物种,即小翅鸊鷉、巨鸊鷉和塔氏鸊鷉,被认为丧失了飞行能力;它们各自都分布于新热带地区的高海拔湖泊或湖泊系统。与它们有飞行能力(能够飞行)的姐妹物种相比,这三种丧失飞行能力的物种具有几个大致趋同的特征:更大的体重和骨骼尺寸(不包括胸骨嵴)、翅膀、尾巴和初级飞羽相对长度的缩短,以及胸肌相对大小的减小。小翅鸊鷉与其有飞行能力的姐妹物种之间表现出最大的形态差异;这些差异在大小上与属间形态测量差异相当,包括体重增加两倍、每只翅膀的初级飞羽模式性减少一根、胸骨嵴绝对长度减小、近端翅膀元素变平、骨骼尺寸发生大的形态测量变化、肩喙角增加,以及胸肌组织存在六个定性差异。巨鸊鷉与其有飞行能力的同属物种之间的形态差异相对较小;如果该物种确实丧失飞行能力,显然是由于体型的异速生长增加,同时胸肌相对体积大幅减小以及翼肌质量发生转移所致。塔氏鸊鷉与其有飞行能力的亲属在解剖学差异程度上处于中间状态,但其独特之处在于翅膀绝对长度略有缩短以及骨骼翅膀元素的绝对宽度减小。与丧失飞行能力相关的外部特征的多变量差异在这三个属中强烈趋同,但骨骼比例的多变量差异在属间细节上有很大不同。翼载荷估计表明,巨鸊鷉,尤其是塔氏鸊鷉可能只是“飞行能力受损”而非丧失飞行能力。小翅鸊鷉和塔氏鸊鷉的相对翅膀长度和胸骨形态表明,与丧失飞行能力相关的形态变化是幼态持续的;小翅鸊鷉种内的异速生长表明,潜在的个体发育变化可能涉及胸翼发育开始时间的延迟(后移)。鸊鷉科以中等较重的翼载荷和相对较小的胸肌为典型特征,在这三个案例中,丧失飞行能力都与低纬度大湖泊提供的全年栖息地有关。导致丧失飞行能力的形态变化的主要选择优势可能与体型增大带来的热力学优势、与喙增大相关的觅食特化,以及通过增加两性异形减少种内生态位重叠有关;这些变化也可能与胸翼发育的经济性有关。

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