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鸟类肺形态测量参数的异速生长研究,并与哺乳动物进行比较。

An allometric study of pulmonary morphometric parameters in birds, with mammalian comparisons.

作者信息

Maina J N, King A S, Settle G

机构信息

Department of Veterinary Anatomy, University of Nairobi, Kenya.

出版信息

Philos Trans R Soc Lond B Biol Sci. 1989 Nov 30;326(1231):1-57. doi: 10.1098/rstb.1989.0104.

DOI:10.1098/rstb.1989.0104
PMID:2575769
Abstract

Comprehensive pulmonary morphometric data from 42 species of birds representing ten orders were compared with those of other vertebrates, especially mammals, relating the comparisons to the varying biological needs of these avian taxa. The total lung volume was strongly correlated with body mass. The volume density of the exchange tissue was lowest in the charadriiform and anseriform species and highest in the piciform, cuculiform and passeriform species. The surface area of the blood-gas (tissue) barrier, the volume of the pulmonary capillary blood and the total morphometric pulmonary diffusing capacity were all strongly correlated with body mass. The harmonic mean thickness of both the blood-gas (tissue) barrier and the plasma layer were weakly correlated with body mass. The mass-specific surface area of the blood-gas (tissue) barrier (surface area per gram body mass) and the surface density of the blood-gas (tissue) barrier (i.e. its surface area per unit volume of exchange tissue) were inversely correlated (though weakly) with body mass. The passeriform species exhibited outstanding pulmonary morphometric adaptations leading to a high specific total diffusing capacity per gram body mass, consistent with the comparatively small size and energetic mode of life which typify passeriform birds. The relatively inactive, ground-dwelling domestic fowl (Gallus gallus) had the lowest pulmonary diffusing capacity per gram body mass. The specific total lung volume is about 27% smaller in birds than in mammals but the specific surface area of the blood-gas (tissue) barrier is about 15% greater in birds. The ratio of the surface area of the tissue barrier to the volume of the exchange tissue was also much greater in the birds (170-305%). The harmonic mean thickness of the tissue barrier was 56-67% less in the birds, but that of the plasma layer was about 66% greater in the birds. The pulmonary capillary blood volume was also greater (22%) in the birds. Except for the thickness of the plasma layer, these morphometric parameters all favour the gas exchange capacity of birds. Consequently, the total specific mean morphometric pulmonary diffusing capacity for oxygen was estimated to be about 22% greater in birds than in mammals of similar body mass. This estimate was obtained by employing oxygen permeation constants for mammalian tissue, plasma and erythrocytes, as avian constants were not then available.(ABSTRACT TRUNCATED AT 400 WORDS)

摘要

对代表十个目的42种鸟类的全面肺形态计量学数据与其他脊椎动物,特别是哺乳动物的数据进行了比较,并将这些比较与这些鸟类分类群不同的生物学需求联系起来。肺总体积与体重密切相关。鸻形目和雁形目物种的交换组织体积密度最低,啄木鸟形目、杜鹃形目和雀形目物种的最高。气血(组织)屏障的表面积、肺毛细血管血量和总体形态计量学肺扩散能力均与体重密切相关。气血(组织)屏障和血浆层的调和平均厚度与体重呈弱相关。气血(组织)屏障的质量比表面积(每克体重的表面积)和气-血(组织)屏障的表面密度(即其每单位交换组织体积的表面积)与体重呈负相关(尽管较弱)。雀形目物种表现出卓越的肺形态计量学适应性,导致每克体重具有较高的比总扩散能力,这与雀形目鸟类相对较小的体型和活跃的生活方式相一致。相对不活跃、地面栖息的家鸡每克体重的肺扩散能力最低。鸟类的比肺总体积比哺乳动物小约27%,但气血(组织)屏障的比表面积比鸟类大15%左右。鸟类组织屏障表面积与交换组织体积的比值也大得多(170 - 305%)。鸟类组织屏障的调和平均厚度比哺乳动物少56 - 67%,但血浆层的调和平均厚度比哺乳动物大约66%。鸟类的肺毛细血管血量也更大(22%)。除了血浆层厚度外,这些形态计量学参数都有利于鸟类的气体交换能力。因此,估计体重相似的鸟类的总比平均形态计量学肺氧扩散能力比哺乳动物大约22%。这个估计是通过使用哺乳动物组织、血浆和红细胞的氧渗透常数得到的,因为当时没有鸟类的常数。(摘要截选至400字)

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